Abstract: An image detection unit for a vehicle. The image detection unit includes an objective including an electrical contact surface, a sensor carrier including a detection sensor situated on the sensor carrier and an electrical contact point. The detection sensor and the contact point are situated at a surface of the sensor carrier that faces the objective. The image detection unit further includes a flexible contacting element for an electrical connection between the contact surface of the objective and the contact point of the sensor carrier.

Abstract: A method for joining a camera module, which includes a base plate on which an image sensor is situated, and an objective holder in which an objective of the camera module is accommodated. The base plate and the objective holder are aligned relative to each other in a connection region and a connecting pin is guided through a recess of the base plate and/or the objective holder so that the connecting pin protrudes on the outside, and the at least one free end of the connecting pin is widened by a forming die using a radially acting deformation force such that the base plate and the objective holder are pressed against each other.

Abstract: A contact sleeve for a camera objective. The contact sleeve includes a sleeve-shaped base body made of an electrically non-conductive material, as well as at least one electrical conductor embedded in the material of the base body, preferably a contact pin, which has, at at least one end, an exposed contacting portion for electrically contacting an electrical consumer integrated in the camera objective. A camera objective having a contact sleeve and the use of the contact sleeve for contacting an electrical consumer of a camera objective, are also described.

Abstract: A method for joining a camera module, including a base plate on which an image sensor is situated, and an objective mount in which an objective of the camera module is accommodated. The base plate is placed on the objective mount, and at least one spring element is laterally mounted and positioned at each of at least two connection areas that are oppositely situated with respect to the optical axis of the camera module. The base plate and the objective mount are pressed flatly against one another via the spring element.

Abstract: A method for producing a camera module. An objective is aligned with respect to an image sensor and is then fixed in position by being joined to a support that receives the image sensor, a housing that surrounds the image sensor, or an interposed connection structure as a joining partner. The objective is mounted on spacer elements, which are initially still movable, and is then aligned with respect to the image sensor by moving the spacer elements. After the objective is aligned, the spacer elements are welded to the objective and the joining partner. A camera module is also described.

Abstract: A method for manufacturing a camera module. An objective is aligned in relation to an image sensor and is subsequently fixated in terms of position by connecting to a support receiving the image sensor or to a housing surrounding the image sensor. The objective is connected to the support or to the housing via at least two cylindrical pins, the cylindrical pins being in each case placed laterally against the objective and being welded on the one hand to the objective, and on the other hand to the support or the housing. A camera module is also described.

Abstract: A method for joining a camera module, which includes a base plate on which an image sensor is situated, and an objective holder in which an objective of the camera module is accommodated. The base plate and the objective holder are aligned relative to each other in a connection region and a connecting pin is guided through a recess of the base plate and/or the objective holder so that the connecting pin protrudes on the outside, and the at least one free end of the connecting pin is widened by a forming die using a radially acting deformation force such that the base plate and the objective holder are pressed against each other.

Abstract: A method for attaching a camera objective to an objective holder. The method includes the steps of introducing the camera objective into an attaching element in the region of the objective holder, the attaching element having a plurality of contact elements that extend from a base body and lie elastically on the camera objective, of orienting the camera objective to an image sensor, and of welding the attaching element using a laser, so that the position of the camera objective to the objective holder is fixed.

Abstract: A method for joining a camera module, which includes a base plate on which an image sensor is situated, and an objective holder in which an objective of the camera module is accommodated. The base plate and the objective holder are aligned relative to each other in a connection region and a connecting pin is guided through a recess of the base plate and/or the objective holder so that the connecting pin protrudes on the outside, and the at least one free end of the connecting pin is widened by a forming die using a radially acting deformation force such that the base plate and the objective holder are pressed against each other.

Abstract: An image detection unit for a vehicle. The image detection unit includes an objective including an electrical contact surface, a sensor carrier including a detection sensor situated on the sensor carrier and an electrical contact point. The detection sensor and the contact point are situated at a surface of the sensor carrier that faces the objective. The image detection unit further includes a flexible contacting element for an electrical connection between the contact surface of the objective and the contact point of the sensor carrier.

Abstract: A camera module that includes an objective lens with an electrical interface and a device for electrically contacting the objective lens in the area of the electrical interface. The device for electrically contacting are also connected to an electronics system, in particular to a circuit board, of the camera module. The electrical interface is formed at the objective lens on the outer circumferential side, and the device for electrical contacting includes an annular body situated on the objective lens on the outer circumferential side, with contacts formed on the inner circumferential side. A method for manufacturing a camera module is also provided.

Abstract: A connecting device for connecting a lens housing for accommodating at least one lens including an image sensor substrate for accommodating an image sensor for a camera. The connecting device includes a first lens holder element and a second lens holder element. The first lens holder element is formed as coupled or coupleable axially with the lens housing. The second lens holder element is formed as coupled or coupleable to the image sensor substrate, the first lens holder element and the second lens holder element being formed as coupled or coupleable axially with one another.

Abstract: A method for joining a camera module, which includes a base plate on which an image sensor is situated, and an objective holder in which an objective of the camera module is accommodated. The base plate and the objective holder are aligned relative to each other in a connection region and a connecting pin is guided through a recess of the base plate and/or the objective holder so that the connecting pin protrudes on the outside, and the at least one free end of the connecting pin is widened by a forming die using a radially acting deformation force such that the base plate and the objective holder are pressed against each other.

Abstract: A method for attaching a camera objective lens to an objective lens holder. The method includes the steps of introducing the camera objective lens into an attaching element in the region of the objective lens holder, the attaching element having a plurality of contact elements that extend from a base body and lie elastically on the camera objective lens, of orienting the camera objective lens to an image sensor, and of welding the attaching element using a laser, so that the position of the camera objective lens to the objective lens holder is fixed.

Abstract: The embodiments include method of nonlinear optical photodynamic therapy of tissue including the steps of providing pulsed infrared laser light for two-photon excited fluorescence tissue exposure, and selectively focusing the pulsed infrared laser light within the tissue at a focal plane to activate a photosensitizing agent to generate free radicals within a highly resolved axial and lateral spatial domain in the tissue. The invention is also directed to an apparatus for performing nonlinear optical photodynamic therapy of tissue including a pulsed infrared laser for providing two-photon excited fluorescence beam tissue exposure, a scanner for selectively and controllably moving the tissue and the beam relative to each other, and optics for selectively focusing the pulsed infrared laser light within the tissue at a point in a focal plane to activate a photosensitizing agent to generate free radicals within a highly resolved axial and lateral spatial domain in the tissue.

Abstract: The embodiments include method of nonlinear optical photodynamic therapy of tissue including the steps of providing pulsed infrared laser light for two-photon excited fluorescence tissue exposure, and selectively focusing the pulsed infrared laser light within the tissue at a focal plane to activate a photosensitizing agent to generate free radicals within a highly resolved axial and lateral spatial domain in the tissue. The invention is also directed to an apparatus for performing nonlinear optical photodynamic therapy of tissue including a pulsed infrared laser for providing two-photon excited fluorescence beam tissue exposure, a scanner for selectively and controllably moving the tissue and the beam relative to each other, and optics for selectively focusing the pulsed infrared laser light within the tissue at a point in a focal plane to activate a photosensitizing agent to generate free radicals within a highly resolved axial and lateral spatial domain in the tissue.

Abstract: The embodiments include method of nonlinear optical photodynamic therapy of tissue including the steps of providing pulsed infrared laser light for two-photon excited fluorescence tissue exposure, and selectively focusing the pulsed infrared laser light within the tissue at a focal plane to activate a photosensitizing agent to generate free radicals within a highly resolved axial and lateral spatial domain in the tissue. The invention is also directed to an apparatus for performing nonlinear optical photodynamic therapy of tissue including a pulsed infrared laser for providing two-photon excited fluorescence beam tissue exposure, a scanner for selectively and controllably moving the tissue and the beam relative to each other, and optics for selectively focusing the pulsed infrared laser light within the tissue at a point in a focal plane to activate a photosensitizing agent to generate free radicals within a highly resolved axial and lateral spatial domain in the tissue.

Abstract: The embodiments include method of nonlinear optical photodynamic therapy of tissue including the steps of providing pulsed infrared laser light for two-photon excited fluorescence tissue exposure, and selectively focusing the pulsed infrared laser light within the tissue at a focal plane to activate a photosensitizing agent to generate free radicals within a highly resolved axial and lateral spatial domain in the tissue. The invention is also directed to an apparatus for performing nonlinear optical photodynamic therapy of tissue including a pulsed infrared laser for providing two-photon excited fluorescence beam tissue exposure, a scanner for selectively and controllably moving the tissue and the beam relative to each other, and optics for selectively focusing the pulsed infrared laser light within the tissue at a point in a focal plane to activate a photosensitizing agent to generate free radicals within a highly resolved axial and lateral spatial domain in the tissue.

Abstract: The embodiments include method of nonlinear optical photodynamic therapy of tissue including the steps of providing pulsed infrared laser light for two-photon excited fluorescence tissue exposure, and selectively focusing the pulsed infrared laser light within the tissue at a focal plane to activate a photosensitizing agent to generate free radicals within a highly resolved axial and lateral spatial domain in the tissue. The invention is also directed to an apparatus for performing nonlinear optical photodynamic therapy of tissue including a pulsed infrared laser for providing two-photon excited fluorescence beam tissue exposure, a scanner for selectively and controllably moving the tissue and the beam relative to each other, and optics for selectively focusing the pulsed infrared laser light within the tissue at a point in a focal plane to activate a photosensitizing agent to generate free radicals within a highly resolved axial and lateral spatial domain in the tissue.