1 / 79

Pr stamo BID N 1663

InnovacinCompetitividad global

lindsey
Download Presentation

Pr stamo BID N 1663

An Image/Link below is provided (as is) to download presentation Download Policy: Content on the Website is provided to you AS IS for your information and personal use and may not be sold / licensed / shared on other websites without getting consent from its author. Content is provided to you AS IS for your information and personal use only. Download presentation by click this link. While downloading, if for some reason you are not able to download a presentation, the publisher may have deleted the file from their server. During download, if you can't get a presentation, the file might be deleted by the publisher.

E N D

Presentation Transcript


    1. (Préstamo BID Nº 1663/OC-PE) Lima, 17-jun-11 1

    2. Innovación Competitividad global & I+D+i Ecosistema de la Innovación: actores y relaciones Estado Empresas Academia Otros Incubadoras de empresas de base tecnológica Sistema Nacional de Innovación Propiedad Intelectual 2

    4. 4 Índice del desarrollo humano

    5. 5 www.benetti.com.br Características del proceso creativo

    6. Dimensiones de la innovación 6

    7. 7 Definiciones

    8. INOVAGRAMA

    9. Modelos de Innovación

    10. Modelos de Innovación

    11. Previsiones para tecnologías emergentes

    12. Drivers for, and Barriers to, Technology Implementation Cost and financing Laws and policies Social values, public opinions, politics Infrastructure Privacy concerns Resource use and environmental health Investment in R&D Education and literacy Population and demographics Governance and stability Back to the issue of drivers and barriers raised earlier in this presentation. The S&T capacity that enables a country to acquire a technology application is only one of several factors determining whether that country will be able to implement it. The drivers facilitating innovation and the barriers hindering it also have a decisive influence on the ability to implement technology applications (i.e., to put the applications in place and get significant gains from them across the country). Our assessments involve things such as whom an application will benefit and whether a country can sustain its use over time. Drivers and barriers involve the same dimensions: A dimension that is a driver in one context may be a barrier in another. For example, financing, when available, would be a driver, but financing, when lacking, is a barrier. A high level of literacy among a nation’s citizens would be a driver, but if literacy were low, it would form a barrier. And in certain cases, a dimension that is a barrier can simultaneously be a driver when only partial progress in that dimension has been made or when conflicting issues in the dimension are present. For example, education in the United States is a driver, but there are also concerns about problems in math and science education in the United States. Also, environmental concerns may dampen some S&T applications in China while promoting environmentally friendly applications such as green manufacturing and hybrid vehicles. We identified 10 major drivers and barriers that countries may face through 2020: (1) cost and financing; (2) laws and policies; (3) social values, public opinions, and politics; (4) infrastructure; (5) privacy concerns; (6) resource use and environmental health; (7) investment in R&D; (8) education and literacy; (9) population and demographics; and (10) governance and stability. Back to the issue of drivers and barriers raised earlier in this presentation. The S&T capacity that enables a country to acquire a technology application is only one of several factors determining whether that country will be able to implement it. The drivers facilitating innovation and the barriers hindering it also have a decisive influence on the ability to implement technology applications (i.e., to put the applications in place and get significant gains from them across the country). Our assessments involve things such as whom an application will benefit and whether a country can sustain its use over time. Drivers and barriers involve the same dimensions: A dimension that is a driver in one context may be a barrier in another. For example, financing, when available, would be a driver, but financing, when lacking, is a barrier. A high level of literacy among a nation’s citizens would be a driver, but if literacy were low, it would form a barrier. And in certain cases, a dimension that is a barrier can simultaneously be a driver when only partial progress in that dimension has been made or when conflicting issues in the dimension are present. For example, education in the United States is a driver, but there are also concerns about problems in math and science education in the United States. Also, environmental concerns may dampen some S&T applications in China while promoting environmentally friendly applications such as green manufacturing and hybrid vehicles. We identified 10 major drivers and barriers that countries may face through 2020: (1) cost and financing; (2) laws and policies; (3) social values, public opinions, and politics; (4) infrastructure; (5) privacy concerns; (6) resource use and environmental health; (7) investment in R&D; (8) education and literacy; (9) population and demographics; and (10) governance and stability.

    13. Major Finding: Not all nations will have capacity to acquire and use all Future Technology Applications Capacity to acquire is based on S&T capacity in each country Acquisition may be through research & development, technology transfer, licensing, off-the-shelf purchases, copying/piracy. Implementation is not automatic Implementation is affected by a confluence of economic, social, political and other mitigating factors. Capacity to use technology applications is based on Capacity to acquire + having sufficient drivers to overcome barriers to implementation. Being able to acquire a technology does not necessarily mean that there is capacity to implement it and effect desired outcomes with it, e.g., in reducing rural poverty or improving public health. TAs may be acquired through a variety of means, including domestic R&D, licensing, off-the-shelf purchases, and even copying/piracy. However, implementation demands a lot more, and the experiences of bilateral and multilateral development banks provide many examples. For example, without access to financing, targeted users of a TA has no means to acquire it and use it. Others might reject certain TAs because of cultural sensitivities. Another reason for failure to implement might be the absence of sufficient infrastructure, e.g., electricity. Indeed, various economic, social, political and other mitigating factors can significantly affect the implementation of TAs. Our assessment of national capacity to implement TAs considered three factors: (1) capacity to acquire, defined as the percentage of the “top 16” TAs listed for that country; (2) the percentage of 10 drivers for implementation applicable to that country; and (3) the percentage of 10 barriers to implementation applicable to that country. In short, more than S&T capacity to acquire a TA, a country needs sufficient drivers to overcome barriers to enable implementation. Our assertion is that capacity to acquire TAs is largely determined by national S&T capacity. Implementing TAs, however, will require the presence of drivers, of the right kind and at a sufficient level to mitigate barriers to their implementation. We derived our 10 drivers and barriers from a large body of research on economic development. (More on these drivers and barriers in subsequent slides/notes.) Being able to acquire a technology does not necessarily mean that there is capacity to implement it and effect desired outcomes with it, e.g., in reducing rural poverty or improving public health. TAs may be acquired through a variety of means, including domestic R&D, licensing, off-the-shelf purchases, and even copying/piracy. However, implementation demands a lot more, and the experiences of bilateral and multilateral development banks provide many examples. For example, without access to financing, targeted users of a TA has no means to acquire it and use it. Others might reject certain TAs because of cultural sensitivities. Another reason for failure to implement might be the absence of sufficient infrastructure, e.g., electricity. Indeed, various economic, social, political and other mitigating factors can significantly affect the implementation of TAs. Our assessment of national capacity to implement TAs considered three factors: (1) capacity to acquire, defined as the percentage of the “top 16” TAs listed for that country; (2) the percentage of 10 drivers for implementation applicable to that country; and (3) the percentage of 10 barriers to implementation applicable to that country. In short, more than S&T capacity to acquire a TA, a country needs sufficient drivers to overcome barriers to enable implementation. Our assertion is that capacity to acquire TAs is largely determined by national S&T capacity. Implementing TAs, however, will require the presence of drivers, of the right kind and at a sufficient level to mitigate barriers to their implementation. We derived our 10 drivers and barriers from a large body of research on economic development. (More on these drivers and barriers in subsequent slides/notes.)

    14. 14 Perú: PBI per capita ($ intl.) 1950-2009

    15. 15 PBI per capita comparativo con EEUU

    16. 16

    17. 17 Pilares del Índice de Competitividad Global (ICG)

    18. 18 I+D/cap (prom. 2001-2003) vs PBI/cap (2001-2005)

    19. 19

    20. 20 Gastos en inversión en I+D como % del PBI

    21. 21

    22. 22 Gastos en I+D por fuente de financiamiento: 2005-2007

    23. 23

    24. 24 Investigadores por sector de empleo. 2007

    25. 25

    26. 26 Distribución de investigadores por campo de la ciencia. 2007

    27. 27

    28. 28

    29. 29 Exportaciones de alta tecnología (% exp. Manufacturadas)

    30. Especialización científica relativa en países de LAC 30

    31. Relaciones entre Ciencia, Tecnología y Producción 31

    32. 32

    33. Incubadoras y la Jerarquía de Habitats de Innovación

    34. 34 Incubadoras y Parques tecnolígicos: aspectos comunes

    35. 35 Incubadoras de empresas

    36. 36

    37. 1. El proceso de incubación 37

    38. 1. Pérdidas en la fase de incubación 38

    39. 39 1. Graduación

    40. 40 1. Pos incubación (masa crítica de empresas)

    41. 41 2. Infraestructura operacional

    42. 42 3. Infraestructura organizacional

    43. 43 4. Infraestructura financiera: financiamiento de emprendimientos y ciclo de vida de la tecnología

    44. Innovación en Universidades: Nuevos actores para complementar Intereses

    45. 45 4. Financiamiento de incubadoras

    46. 46 5. Masa crítica de empresas

    47. 47 6. Redes

    48. 48 7. Contexto: generalidades

    49. 49 7. Contexto: caso Perú

    50. Ejemplo 1. Vacuna recombinante contra leishmaniosis visceral canina. UFMG, Brasil. EMPRESA: HERTAPE CALIER SAÚDE ANIMAL http://www.hertapecalier.com.br/ En 2003, Hertape licencio de la UFMG know-how para producción de antígenos para vacuna recombinante contra leishmaniosis canina. Fue producido el antígeno A2, una proteína recombinante. Fue producida una vacuna contra leishmaniosis canina en 2008. Otras vacunas están en fase de desarrollo.

    51.

    52. VACUNA RECOMBINANTE CONTRA LEISHMANIOSIS CANINA ____________________________________

    53. 53

    54. 54 Ejemplo 3. Akwan y Google. UFMG,Brasil.

    55. 55 Ejemplo 4. Rethink. Octantis y CORFO, Chile.

    56. 56 Ejemplo 5.

    57. 57 Tienen más apetito de crecimiento. Son de más de un dueño y a veces mixtas. Incorporan socios no familiares Se orientan más al mercado (no a la tecnología). Amplían sus redes sociales. Se apoyan en grandes clientes. Aceptan inversores. No se limitan al mercado local. Hacen alianzas para ampliar oferta. Pagan menos motivan más con proyecto y futuro. Experimentan y fallan rápido.

    58. Organigrama del SN de CTI.2008 58

    59. 59 Sistema Nacional de Innovación Tecnológica

    60. Marco legal del Sistema Nacional de CTI 60

    61. Creación de «parques tecnológicos». Creación de «incubadoras de negocios tecnológicos». Promoción de aglomerados y redes (clusters y networks). Promoción de vínculos entre empresas peruanas y grandes empresas internacionales que compran productos locales. Promoción de alianzas estratégicas entre las empresas peruanas en sectores claves para la transformación de los recursos naturales, principalmente vinculados a las cadenas productivas. Políticas públicas para fomentar la innovación tecnológica 61

    62. Establecimientos de fondos de capital de riesgo y de mecanismos financieros para facilitar la innovación tecnológica. Creación y promoción de programas de capacitación laboral y entrenamiento profesional especializado para sectores productivos y sociales prioritarios, así como de maestría en gestión empresarial y de innovación. Promoción del control de la calidad y uso de normas técnicas internacionales reconocidas. Iimportación, adaptación y absorción de tecnología en sectores prioritarios. Protección de la propiedad intelectual. 62

    63. 63 Instrumentos de innovación en países de LAC. I. 2008

    64. 64 Instrumentos de innovación en países de LAC. II. 2008

    65. 65 Instrumentos de innovación en países de LAC. III. 2008

    66. 66 Resumen de las opciones estratégicas para la construcción de un SIT en el Perú

    67. Universidad clásica (siglo XI): Enseñanza. Universidad de investigación (siglo XIX). Enseñanza e investigación. Universidad emprendedora (mitad del siglo XX). Enseñanza, investigación y emprendimiento (innovación). Vinculada al desarrollo económico y social. Redefinición de la misión tradicional. Evolución de la relación Universidad-Empresa 67

    68. Papel del conocimiento en el crecimiento económico 68

    69. 69

    70. 70 Ranking Iberoamericano SIR 2011

    71. Rol de la Universidad “Es tan complejo el problema de las universidades que, posiblemente, en lugar de tratar de dar nuevas leyes universitarias, lo más importante sería conducir a todas las universidades a que funcionen de acuerdo a SISTEMAS DE GESTIÓN DE LA CALIDAD BASADA EN LA MEJORA CONTINUA y validados internacionalmente”.

    72. Herramientas de propiedad intelectual

    73. Gestión de la Propiedad Intelectual e Industrial 73 Basado en Clarke, Modet & Co. 2010. España

    74. 74 Tomado de Clarke, Modet & Co. España

    75. 75 Basado en Clarke, Modet & Co. España

    76. Reflexiones sobre los Procesos de Transferencia de Tecnología

    77. 4. El impacto en la economía local sea a través del proceso de TT o de spin-off llevara de dos a tres décadas para su consolidación; el impacto regional tomará 20 años. 5. El último impacto puede ser muy grande del punto de vista económico y cultural para la universidad, sus estudiantes y su comunidad. Reflexiones sobre los Procesos de Transferencia de Tecnología

    78. Recomendaciones finales Fortalecimiento de la investigación científica como generadora de conocimiento, tecnología y formación de recursos humanos de altísima calidad (magíster y doctores). Aumento de la cultura de PI, como factor de ciudadanía y soberanía nacional. Desarrollar redes de colaboración para formar recursos humanos de manera conjunta, aprovechar economías de escala y generar sinergia dado los diferentes estados de avance de cada país. Desarrollar redes de colaboración que permitan maximizar el valor de los portfolios de tecnologías y acelerar los procesos de TT.

    79. Financiamiento de proyectos de I+D+i 79

More Related