mhurhangee/patent-ind-claim-en huggingface dataset:
A multi-well tray for use with an automated biochemical analyser comprising: a base having a top surface , a bottom surface and an arm for engagement by a transport mechanism, the transport mechanism being configured to transport the multi-well tray within the automated biochemical analyser; and a plurality of wells disposed in the top surface of the base ; and a pair of snap fingers formed in the bottom surface of the base , wherein the snap fingers define a slot into which an element of the automated biochemical analyser is inserted, the snap fingers being configured to grasp the element, thereby forming a secure attachment thereto; wherein the arm is located at a first end of the base , and wherein the snap fingers extend inwardly from a second end of the base , the first and second ends being at opposite ends of the base . a base having a top surface , a bottom surface and an arm for engagement by a transport mechanism, the transport mechanism being configured to transport the multi-well tray within the automated biochemical analyser; and a plurality of wells disposed in the top surface of the base ; and a pair of snap fingers formed in the bottom surface of the base , wherein the snap fingers define a slot into which an element of the automated biochemical analyser is inserted, the snap fingers being configured to grasp the element, thereby forming a secure attachment thereto; wherein the arm is located at a first end of the base , and wherein the snap fingers extend inwardly from a second end of the base , the first and second ends being at opposite ends of the base .
An apparatus comprising: a first Carbon Fiber Reinforced Plastic, CFRP, panel (220-1); a second CFRP panel (220-2) that overlaps with the first CFRP panel (220-1) in a first direction orthogonal to a first plane to create an area where the first CFRP panel (220-1) and the second CFRP panel (220-2) overlap in the first plane; a fastener to join the first CFRP panel (220-1) with the second CFRP panel (220-2), the fastener extending in the first direction in the area where the first CFRP panel (220-1) and the second CFRP panel (220-2) overlap; and a plurality of electrically conductive pins in each of the first CFRP panel (220-1) and the second CFRP panel (220-2), wherein the pins extend in the first direction proximate to the fastener to electrically connect the first CFRP panel (220-1) and the second CFRP panel (220-2) in the area where the first CFRP panel (220-1) and the second CFRP panel (220-2) overlap, wherein the pins include: a first group of pins inside the first CFRP panel (220-1) each having heads exposed at a bottom surface of the first CFRP panel (220-1); and a second group of pins inside the second CFRP panel (220-2) each having heads exposed at a top surface of the second CFRP panel (220-2). a first Carbon Fiber Reinforced Plastic, CFRP, panel (220-1); a second CFRP panel (220-2) that overlaps with the first CFRP panel (220-1) in a first direction orthogonal to a first plane to create an area where the first CFRP panel (220-1) and the second CFRP panel (220-2) overlap in the first plane; a fastener to join the first CFRP panel (220-1) with the second CFRP panel (220-2), the fastener extending in the first direction in the area where the first CFRP panel (220-1) and the second CFRP panel (220-2) overlap; and a plurality of electrically conductive pins in each of the first CFRP panel (220-1) and the second CFRP panel (220-2), wherein the pins extend in the first direction proximate to the fastener to electrically connect the first CFRP panel (220-1) and the second CFRP panel (220-2) in the area where the first CFRP panel (220-1) and the second CFRP panel (220-2) overlap, wherein the pins include: a first group of pins inside the first CFRP panel (220-1) each having heads exposed at a bottom surface of the first CFRP panel (220-1); and a second group of pins inside the second CFRP panel (220-2) each having heads exposed at a top surface of the second CFRP panel (220-2). a first group of pins inside the first CFRP panel (220-1) each having heads exposed at a bottom surface of the first CFRP panel (220-1); and a second group of pins inside the second CFRP panel (220-2) each having heads exposed at a top surface of the second CFRP panel (220-2).
Hazard alarm control unit, comprising - a housing , - a first electronic assembly which can be detachably mounted in the housing with a central computer unit , a stored programming with at least one configuration module, one detector signal detection unit and a control unit , - a second electronic assembly , which is designed as an operating and display front panel without display on an outer side , with switching elements and illuminants , and on an inner side as commissioning and configuration unit , which is designed to be configuration parameter setting tools and a first optical display , wherein - the second electronic assembly is signal-conducting with the first electronic assembly and is arranged such that adjustable configuration parameters of the configuration parameters adjusting means are taken by said first electronic assembly for recording and processing in the at least one configuration module. - a housing , - a first electronic assembly which can be detachably mounted in the housing with a central computer unit , a stored programming with at least one configuration module, one detector signal detection unit and a control unit , - a second electronic assembly , which is designed as an operating and display front panel without display on an outer side , with switching elements and illuminants , and on an inner side as commissioning and configuration unit , which is designed to be configuration parameter setting tools and a first optical display , wherein - the second electronic assembly is signal-conducting with the first electronic assembly and is arranged such that adjustable configuration parameters of the configuration parameters adjusting means are taken by said first electronic assembly for recording and processing in the at least one configuration module.
Vehicle light comprising - a container body and a lenticular body joined at least partially to close the container body, - wherein the container body delimits a containment seat housing at least one light source that emits a beam of light through the lenticular body , - wherein said at least one light source faces at least one light guide having a light guide body shaped to receive the light beam from a light input wall , and to transmit it, by total internal reflection, to a light output wall and from this to a main light emission portion of the lenticular body , - wherein the light guide body comprises at least first extractor elements , placed between the light input wall and the light output wall , which extract a first extracted portion of the light beam emitted by the light source and direct it onto first reflecting elements separate from the light guide , said first reflecting elements reflecting said first extracted portion towards the lenticular body at a first auxiliary light emission portion of the lenticular body , separate from said main emission portion , characterized in that the extractor elements are configured so that the main light emission portion and the auxiliary light emission portions have different luminance levels. - a container body and a lenticular body joined at least partially to close the container body, - wherein the container body delimits a containment seat housing at least one light source that emits a beam of light through the lenticular body , - wherein said at least one light source faces at least one light guide having a light guide body shaped to receive the light beam from a light input wall , and to transmit it, by total internal reflection, to a light output wall and from this to a main light emission portion of the lenticular body , - wherein the light guide body comprises at least first extractor elements , placed between the light input wall and the light output wall , which extract a first extracted portion of the light beam emitted by the light source and direct it onto first reflecting elements separate from the light guide , said first reflecting elements reflecting said first extracted portion towards the lenticular body at a first auxiliary light emission portion of the lenticular body , separate from said main emission portion ,
Composition in the form of a water-in-oil emulsion comprising: - from 20% to 40% (v/v) of aqueous phase, in the form of droplets, comprising an anti-cancer agent, - from 60% to 80% (v/v) of lipid phase comprising an iodized oil and at least one surfactant of formula (I) in a proportion, by weight of surfactant relative to the total volume of the composition, of 0.3% to 5%, formula (I) of said surfactant being the following: in which: - s is 0 or 1, - m represents an integer from 2 to 30, - R 1 represents a group of formula (II) in which n represents an integer from 4 to 10, o represents an integer from 1 to 4, p represents an integer from 3 to 7, q represents an integer from 2 to 10 and r is 0 or 1, - R 2 represents a hydrogen atom or is identical to R 1 , and - each R 3 independently represents a hydrogen atom or is identical to R 1 . - from 20% to 40% (v/v) of aqueous phase, in the form of droplets, comprising an anti-cancer agent, - from 60% to 80% (v/v) of lipid phase comprising an iodized oil and at least one surfactant of formula (I) in a proportion, by weight of surfactant relative to the total volume of the composition, of 0.3% to 5%, formula (I) of said surfactant being the following: in which: - s is 0 or 1, - m represents an integer from 2 to 30, - R 1 represents a group of formula (II) in which n represents an integer from 4 to 10, o represents an integer from 1 to 4, p represents an integer from 3 to 7, q represents an integer from 2 to 10 and r is 0 or 1, - R 2 represents a hydrogen atom or is identical to R 1 , and - each R 3 independently represents a hydrogen atom or is identical to R 1 . - s is 0 or 1, - m represents an integer from 2 to 30, - R 1 represents a group of formula (II) in which n represents an integer from 4 to 10, o represents an integer from 1 to 4, p represents an integer from 3 to 7, q represents an integer from 2 to 10 and r is 0 or 1, - R 2 represents a hydrogen atom or is identical to R 1 , and - each R 3 independently represents a hydrogen atom or is identical to R 1 .
Method for the pressure-based determination of a product parameter in a freeze dryer comprising the following methods steps: a) closure of a closing element arranged between an ice chamber and a drying chamber at a point in time t START and for a time span between the point in time t START and a point in time t ENDE , b) measuring of pressure values ( P 1 , P 2 , ...) in the drying chamber during the time span between the point in time t START and the point in time t ENDE , c) determination of an approximation of the product parameter from the pressure values ( P 1 , P 2 , ...) measured during the time span between the point in time t START and the point in time t ENDE and d) opening of the closing element at the point in time t ENDE , characterized in that e) the point in time t ENDE and the approximation of the product parameter which is considered for the determination of the point in time t ENDE are determined specifically for the pressure values ( P, P 2 , ...) measured during the time span between the point in time T START . and a point in time t ENDE . a) closure of a closing element arranged between an ice chamber and a drying chamber at a point in time t START and for a time span between the point in time t START and a point in time t ENDE , b) measuring of pressure values ( P 1 , P 2 , ...) in the drying chamber during the time span between the point in time t START and the point in time t ENDE , c) determination of an approximation of the product parameter from the pressure values ( P 1 , P 2 , ...) measured during the time span between the point in time t START and the point in time t ENDE and d) opening of the closing element at the point in time t ENDE , characterized in that e) the point in time t ENDE and the approximation of the product parameter which is considered for the determination of the point in time t ENDE are determined specifically for the pressure values ( P, P 2 , ...) measured during the time span between the point in time T START . and a point in time t ENDE .
Multi-circuit hydraulically open brake system , in particular for a highly automated or autonomous vehicle, having at least two wheel brakes (RB1, RB2, RB3, RB4) which are each assigned to a brake circuit (BK1, BK2) with a pressure discharge path (9.1, 9.2), having two multi-circuit pressure generators , and having a hydraulic unit for hydraulic connection of the pressure generators to the at least two wheel brakes (RB1, RB2, RB3, RB4) and for individual brake-pressure modulation in the at least two wheel brakes (RB1, RB2, RB3, RB4), wherein a first pressure generator is in the form of a plunger system and is assigned to a main system , which main system comprises a first energy supply (EV1) and a first evaluation and control unit , wherein a second pressure generator is in the form of a second plunger system or in the form of a pump system and is assigned to a secondary system , which secondary system comprises a second energy supply (EV2), which is independent of the first energy supply (EV1), and a second evaluation and control unit , which controls the second pressure generator , wherein components of the hydraulic unit , for individual brake-pressure modulation, are assigned to the main system , so that said components of the hydraulic unit and the first pressure generator are controlled by the first evaluation and control unit and are supplied with energy by the first energy supply (EV1), characterized in that the two multi-circuit pressure generators are hydraulically connected in series between a fluid container and the at least two wheel brakes (RB1, RB2, RB3, RB4), wherein the main system , during normal operation, by means of the first pressure generator , increases or reduces or maintains the pressure in the brake circuits (BK1, BK2) and, by means of the hydraulic unit , performs the individual brake-pressure modulation in the at least two wheel brakes (RB1, RB2, RB3, RB4), wherein the secondary system , in the event of failure of the main system , by means of the second pressure generator , increases or reduces or maintains the pressure in the brake circuits (BK1, BK2), and the individual brake-pressure modulation in the at least two wheel brakes (RB1, RB2, RB3, RB4) is not applied.
A system for distributing data for 3D light field projection, the system comprising: - a plurality of input terminals suitable for receiving a stream of input data , and a plurality of output terminals being connectable to pixel elements of a display; - a plurality of data paths between input terminals and output terminals - a plurality of data switches , each suitable for controlling, via control variables, a transfer of input data , when received at the input terminals , on a data path; - a control plane adapted for applying control variables to the data switches ; characterised in that the control plane comprises a plurality of control switches for selecting, via enable variables, one or more control variables from sequences of control variables and applying the one or more control variables to the data switches , at least one first delay line suitable for propagating sequences of control variables, and at least one second delay line suitable for propagating sequences of enable variables, the at least one first delay line and the at least one second delay line comprising each one or more delay units (106, 107; 108, 109), each of the one or more delay units of the at least one first delay line being in a synchronized relationship with exactly one of the one or more delay units of the at least one second delay line ; and in that the system further comprises means for detecting patterns contained in the stream of input data , when received during system run-time, the detected patterns determining the sequences of control variables. - a plurality of input terminals suitable for receiving a stream of input data , and a plurality of output terminals being connectable to pixel elements of a display; - a plurality of data paths between input terminals and output terminals - a plurality of data switches , each suitable for controlling, via control variables, a transfer of input data , when received at the input terminals , on a data path; - a control plane adapted for applying control variables to the data switches ; a plurality of control switches for selecting, via enable variables, one or more control variables from sequences of control variables and applying the one or more control variables to the data switches , at least one first delay line suitable for propagating sequences of control variables, and at least one second delay line suitable for propagating sequences of enable variables, the at least one first delay line and the at least one second delay line comprising each one or more delay units (106, 107; 108, 109), each of the one or more delay units of the at least one first delay line being in a synchronized relationship with exactly one of the one or more delay units of the at least one second delay line ; and in that the system further comprises means for detecting patterns contained in the stream of input data , when received during system run-time, the detected patterns determining the sequences of control variables.
An apparatus for processing a substrate , comprising: a chamber defining an interior volume ; a radiant heat source disposed within the interior volume ; a rotatable support disposed within the interior volume adjacent the radiant heat source ; a laser source disposed within the interior volume adjacent the substrate support , wherein radiation emitted from the laser source has a contoured power density which increases from a central area of a substrate to a circumference of the substrate ; and a window disposed within the interior volume between the radiant heat source and the laser source . a chamber defining an interior volume ; a radiant heat source disposed within the interior volume ; a rotatable support disposed within the interior volume adjacent the radiant heat source ; a laser source disposed within the interior volume adjacent the substrate support , wherein radiation emitted from the laser source has a contoured power density which increases from a central area of a substrate to a circumference of the substrate ; and a window disposed within the interior volume between the radiant heat source and the laser source .
A movement device comprising at least one fastening device for receiving, holding and/or fastening a human or animal body , which is provided on a first carrier element arranged rotatably about a first main axis , wherein the movement device is embodied as a centrifuge, a medical centrifuge or a training centrifuge, characterized in that ∘ a manipulator configuration is provided on the movement device, ∘ the manipulator configuration is suitable for touching and/or invasive examination or treatment of the human or animal body under the influence of elevated and/or variable acceleration, wherein an elevated and/or variable acceleration is an acceleration condition, in which the manipulator configuration is exposed to elevated and/or variable acceleration forces and is moved, ∘ the manipulator configuration comprises a function head , wherein acceleration forces that are different from the ambient acceleration forces act on the manipulator configuration and on the function head due to the movement and due to the change in the movement, ∘ the function head is movable in relation to a base along a plurality of degrees of freedom that are movable by drive devices, wherein the position and/or the contact force of the function head touching the body can be changed with respect to the body under the influence of elevated and/or variable acceleration, ∘ at least one drive device is configured as a force-limited drive device , and the contact force is system inherently limited by the force-limited drive device, so that accidental injury of the body by the function head and/or the manipulator configuration is prevented, and in particular the contact force is limited by a pressure valve of the force-limited drive device. ∘ a manipulator configuration is provided on the movement device, ∘ the manipulator configuration is suitable for touching and/or invasive examination or treatment of the human or animal body under the influence of elevated and/or variable acceleration, wherein an elevated and/or variable acceleration is an acceleration condition, in which the manipulator configuration is exposed to elevated and/or variable acceleration forces and is moved, ∘ the manipulator configuration comprises a function head , wherein acceleration forces that are different from the ambient acceleration forces act on the manipulator configuration and on the function head due to the movement and due to the change in the movement, ∘ the function head is movable in relation to a base along a plurality of degrees of freedom that are movable by drive devices, wherein the position and/or the contact force of the function head touching the body can be changed with respect to the body under the influence of elevated and/or variable acceleration, ∘ at least one drive device is configured as a force-limited drive device , and the contact force is system inherently limited by the force-limited drive device, so that accidental injury of the body by the function head and/or the manipulator configuration is prevented, and in particular the contact force is limited by a pressure valve of the force-limited drive device.
An inhaler device comprising; an actuation mechanism having; an indexing system comprising first and second indexers for advancing first and second medicament carriers ; and a common actuator for the first and second indexers ; wherein the common actuator is movable between a first position and a second position via an intermediate position; and characterised in that progression of the first indexer is disproportional to progression of the second indexer . an actuation mechanism having; an indexing system comprising first and second indexers for advancing first and second medicament carriers ; and a common actuator for the first and second indexers ; an indexing system comprising first and second indexers for advancing first and second medicament carriers ; and a common actuator for the first and second indexers ; wherein the common actuator is movable between a first position and a second position via an intermediate position; and characterised in that progression of the first indexer is disproportional to progression of the second indexer .