mhurhangee/ep-ind-claims huggingface dataset:
Automatic desktop personalization device, for personalization of security booklet documents comprising a spine, said personalization device comprising: - a casing, - a camera, - an inkjet printing module, comprising a moveable printing head mounted on a fixed printing bridge, and configured to print within a printing zone, - a laser marking module, comprising a laser marking head, configured to mark within a marking zone, - an chip encoding module, - a security booklet document transport mechanism, configured to automatically transport a security booklet document along a Y-axis linear direction, from an entrance to an exit of the automatic desktop personalization device, through printing positions and a marking position which is different from the printing positions, wherein the entrance and the exit are the same, - wherein the printing head is movable alongside an X-axis linear direction, which is perpendicular to the Y-axis linear direction, Characterized in that the inkjet printing module comprises the security booklet document transport mechanism, the laser head is adjacent to the inkjet printing bridge, such that the marking zone and the printing zone are at least partly combined, the laser marking module is located above, piled up with, the inkjet printing module; such that the laser marking zone is located within the inkjet printing module and at least partly overlaps, is coincident with, the inkjet printing zone. - a casing, - a camera, - an inkjet printing module, comprising a moveable printing head mounted on a fixed printing bridge, and configured to print within a printing zone, - a laser marking module, comprising a laser marking head, configured to mark within a marking zone, - an chip encoding module, - a security booklet document transport mechanism, configured to automatically transport a security booklet document along a Y-axis linear direction, from an entrance to an exit of the automatic desktop personalization device, through printing positions and a marking position which is different from the printing positions, wherein the entrance and the exit are the same, - wherein the printing head is movable alongside an X-axis linear direction, which is perpendicular to the Y-axis linear direction, the inkjet printing module comprises the security booklet document transport mechanism, the laser head is adjacent to the inkjet printing bridge, such that the marking zone and the printing zone are at least partly combined, the laser marking module is located above, piled up with, the inkjet printing module; such that the laser marking zone is located within the inkjet printing module and at least partly overlaps, is coincident with, the inkjet printing zone.
A conveyor comprising an endlessly running conveying means which forms an upper strand (1.1) in the forward run and a lower strand (1.2) in the return run and the upper strand (1.1) of which with the underside of the conveying means and the lower strand (1.2) of which with the visible side (1.5) of the conveying means is guided in a guide, wherein the guide comprises at least one upper guide strand (2.1, 2.2) and at least one lower guide strand (2.3, 2.4), characterized in that, in the cross-section of the guide, the upper guide strand (2.1, 2.2) extends parallel to the conveying means and the lower guide strand (2.3, 2.4) extends inclined at an angle (α) to the conveying means.
A system for clearing railroad ballast, characterized in that it comprises: a pair of rotary cutting wheels, each rotary cutting wheel including a plurality of individually removable cutting attachments disposed at a perimeter of the cutting wheels; a pair of articulated arms, each articulated arm being mounted at one end to a support structure and at an opposed end, being attached to one of the rotary cutting wheels, wherein each articulated arm is capable of independently manipulating the corresponding rotary cutting wheel about a plurality of axis; and a motor mounted to and mechanically driving each of the pair of cutting wheels. a pair of rotary cutting wheels, each rotary cutting wheel including a plurality of individually removable cutting attachments disposed at a perimeter of the cutting wheels; a pair of articulated arms, each articulated arm being mounted at one end to a support structure and at an opposed end, being attached to one of the rotary cutting wheels, wherein each articulated arm is capable of independently manipulating the corresponding rotary cutting wheel about a plurality of axis; and a motor mounted to and mechanically driving each of the pair of cutting wheels.
A device comprising: a plurality of unit pixels (11A and 12A), each of the unit pixels including a sensor-cell means that is arranged to output a signal obtained by photoelectric conversion and a reset noise generated due to initialization of the sensor-cell means, and a plurality of memory-cell means (101 and 102); a transfer means; and a common output line connected to each of the plurality of unit pixels, characterized in that the sensor-cell means and the transfer means are connected to each other via a first node of the common output line, and each of the plurality of memory-cell means is connected to the first node, the transfer means is arranged to receive a signal outputted from the sensor cell means, and to output a signal indicative of a difference between the received signal and a noise of the transfer means, and a signal based on the noise of the transfer means is written into at least two of the plurality of memory-cell means in the same period. a plurality of unit pixels (11A and 12A), each of the unit pixels including a sensor-cell means that is arranged to output a signal obtained by photoelectric conversion and a reset noise generated due to initialization of the sensor-cell means, and a plurality of memory-cell means (101 and 102); a transfer means; and a common output line connected to each of the plurality of unit pixels, characterized in that the sensor-cell means and the transfer means are connected to each other via a first node of the common output line, and each of the plurality of memory-cell means is connected to the first node, the transfer means is arranged to receive a signal outputted from the sensor cell means, and to output a signal indicative of a difference between the received signal and a noise of the transfer means, and a signal based on the noise of the transfer means is written into at least two of the plurality of memory-cell means in the same period.
Method of producing a solid formulation of an immunoglobulin single variable domain, which is a wet granulation process or a coating process wherein a solid carrier material is agitated and contacted with a liquid comprising an immunoglobulin single variable domain as an active agent and concomitantly heat is applied to evaporate the liquid, wherein the method is performed at a temperature of the solid carrier material contacted with the liquid comprising an immunoglobulin single variable domain between 40°C and 80°C.
A shock absorber for a motor vehicle, at least comprised of a shock absorber crossbeam and at least two spaced crash boxes disposed directly or indirectly with a first end section forming a first edge at the shock absorber crossbeam and with a second end section forming a second edge at chassis portions or longitudinal beam portions provided at the motor vehicle, the crash boxes comprising at least one hollow profile portion made of metal with a first and a second edge at its ends and for energy absorption of forces acting in the longitudinal direction of the motor vehicle, being configured as a deformation element, within the hollow profile portion of each crash box at least one additional hollow profile portion made of metal is disposed, which includes at least at one front face a terminal edge differing from the terminal edge of the hollow profile portion representing a straight cut, such that in case of a crash a different load absorption up to reaching the total cross section occurs, by that at the beginning of a crash deformation event only a portion of the cross section of the additional hollow profile portion participates in the deformation and only after a specific deformation path the entire cross section thereof participates in the deformation, and the additional hollow profile portion having a cross-sectional shape differing from the hollow profile portion, characterized by that the additional hollow profile portion, relative to the hollow profile portion is aligned such that the longitudinal edges of the corner sections of the additional hollow profile portion bear against the side faces of the hollow profile portion (already before the deformation or at least after the beginning of a deformation caused by crash.
A method for detecting chemical, biochemical, medical and/or physical reactions, binding and/or attachment processes as well as other interactions by determining the interaction of capture molecules on a thin transparent layer (207, 307) with species in a sample, thereby resulting in a change in layer thickness in the region of the interaction, wherein in the method light of a narrow wavelength range is incident on an at least partially transparent support (203, 305) having a plurality of spaced apart subregions (207', 307') of the thin transparent layer (207, 307), and wherein interferences at the subregions (207', 307') of the thin transparent layer (207, 307) are measured as relative intensity of superposition waves and selectively using filter arrays provided therefor, and subsequently the reflection and/or transmission coefficients of the subregions (207', 307') are determined, and wherein - overlapping wave fields are formed at the boundary surfaces (221, 221', 323, 323') of the subregions (207', 307'), which wave fields each result in a superposition wave in reflection and/or transmission which is detected via a detector arrangement (209, 309), - the time variable course of the incident light is measured via a reference detector or sensor (209', 323), - signals detected via the detector arrangement (209, 309) and via the reference detector or sensor (209', 323) are forwarded to a comparator, wherein the comparator, by quotient formation from the signals detected by the detector arrangement (209', 309) and by the reference sensor (209', 323), forms relative signals independent of the intensity of the incident light and thus providing the reflection and/or transmission coefficients of the subregions (207',307'), and - optical layer thicknesses of the subregions (207', 307') are determined from the reflection and/or transmission coefficients in conjunction with at least one lookup table, and corresponding layer thickness changes of the subregions (207', 307') are determined therefrom. - overlapping wave fields are formed at the boundary surfaces (221, 221', 323, 323') of the subregions (207', 307'), which wave fields each result in a superposition wave in reflection and/or transmission which is detected via a detector arrangement (209, 309), - the time variable course of the incident light is measured via a reference detector or sensor (209', 323), - signals detected via the detector arrangement (209, 309) and via the reference detector or sensor (209', 323) are forwarded to a comparator, wherein the comparator, by quotient formation from the signals detected by the detector arrangement (209', 309) and by the reference sensor (209', 323), forms relative signals independent of the intensity of the incident light and thus providing the reflection and/or transmission coefficients of the subregions (207',307'), and - optical layer thicknesses of the subregions (207', 307') are determined from the reflection and/or transmission coefficients in conjunction with at least one lookup table, and corresponding layer thickness changes of the subregions (207', 307') are determined therefrom.
A cache for use in a packet data network, comprising: a receiver for receiving a packet from an upstream node, the packet including transport and application headers-(223, 224) and a payload; a storage medium for storing cached data; a processor operatively connected to the receiver and storage medium, the processor arranged to: determine whether the packet is a stripped-down packet in which the payload thereof contains pointer information identifying a payload data segment; if so; determine whether-the payload data segment is stored in the storage medium; and if so, use the pointer information to locate and retrieve the payload data segment from the storage medium, and insert the retrieved payload data segment into the payload of the packet; and a transmitter operatively connected to the processor for forwarding the packet towards a client. a receiver for receiving a packet from an upstream node, the packet including transport and application headers-(223, 224) and a payload; a storage medium for storing cached data; a processor operatively connected to the receiver and storage medium, the processor arranged to: determine whether the packet is a stripped-down packet in which the payload thereof contains pointer information identifying a payload data segment; if so; determine whether-the payload data segment is stored in the storage medium; and if so, use the pointer information to locate and retrieve the payload data segment from the storage medium, and insert the retrieved payload data segment into the payload of the packet; determine whether the packet is a stripped-down packet in which the payload thereof contains pointer information identifying a payload data segment; if so; determine whether-the payload data segment is stored in the storage medium; and if so, use the pointer information to locate and retrieve the payload data segment from the storage medium, and insert the retrieved payload data segment into the payload of the packet; and a transmitter operatively connected to the processor for forwarding the packet towards a client.
A method of cutting a semiconductor material by irradiating the semiconductor material with laser energy, comprising the steps of: i) providing a laser source adapted to emit successive pulses of laser beams, ii) emitting laser beam pulses from the laser source, iii) guiding the emitted laser beam pulses to irradiate semiconductor material to be cut, and iv) moving the semiconductor material relative to the irradiating laser beam pulses to cut the semiconductor material along a cutting line, wherein the laser source emits laser beam pulses having a pulse width of 100 picoseconds or less, and in step iii), the semiconductor material is irradiated by a plurality of laser beam pulses with a pulse repetition frequency in the range from 0.1 GHz to 5000 GHz, and wherein the plurality of laser beam pulses are emitted in at least two successive bursts of pulses, each burst comprising a plurality of laser beam pulses, the method characterised by the step of controlling at least one of: the laser source such that successive bursts have different pulse repetition frequencies, and the polarisation of the emitted laser beam pulses, such that the laser beam pulses of different bursts have different laser beam polarisation states. i) providing a laser source adapted to emit successive pulses of laser beams, ii) emitting laser beam pulses from the laser source, iii) guiding the emitted laser beam pulses to irradiate semiconductor material to be cut, and iv) moving the semiconductor material relative to the irradiating laser beam pulses to cut the semiconductor material along a cutting line, wherein the laser source emits laser beam pulses having a pulse width of 100 picoseconds or less, and in step iii), the semiconductor material is irradiated by a plurality of laser beam pulses with a pulse repetition frequency in the range from 0.1 GHz to 5000 GHz, and wherein the plurality of laser beam pulses are emitted in at least two successive bursts of pulses, each burst comprising a plurality of laser beam pulses, the method characterised by the step of controlling at least one of: the laser source such that successive bursts have different pulse repetition frequencies, and the polarisation of the emitted laser beam pulses, such that the laser beam pulses of different bursts have different laser beam polarisation states.
Light-emitting thin-film diode, comprising - a barrier layer, - a first mirror layer succeeding the barrier layer, - a layer stack succeeding the first mirror layer, which has at least one active layer which emits electromagnetic radiation, and - at least one contact structure which succeeds the layer stack, is arranged on a radiation exit surface and has a contact surface, wherein the barrier layer is designed to prevent diffusion of material into the first mirror layer, the barrier layer comprises TiWN, the first mirror layer has, in a region lying opposite the contact surface of the contact structure, a cutout which is larger than the contact surface of the contact structure, wherein an interface of the layer stack which lies opposite the radiation exit surface is altered in the region of the cutout in such a way that a contact resistance between the layer stack and the cut-out region of the first mirror layer is increased, and the cutout of the first mirror layer has a second mirror layer. - a barrier layer, - a first mirror layer succeeding the barrier layer, - a layer stack succeeding the first mirror layer, which has at least one active layer which emits electromagnetic radiation, and - at least one contact structure which succeeds the layer stack, is arranged on a radiation exit surface and has a contact surface, wherein the barrier layer is designed to prevent diffusion of material into the first mirror layer,
A method of controlling a bearer (50, 60) in a mobile communication network, the bearer being a non-guaranteed bitrate bearer established between a gateway node and a mobile terminal via an intermediate gateway node and an access node and comprising a first sub-bearer (51, 61) between the mobile terminal and the access node, a second sub-bearer (52, 62) between the access node and the intermediate gateway node, and a third sub-bearer (53, 63) between the intermediate gateway node and the gateway node, wherein the method is characterised by: - on the basis of the first sub-bearer (51, 61) and/or the second sub-bearer (52, 62) being released, controlling releasing of the third sub-bearer (53, 63). - on the basis of the first sub-bearer (51, 61) and/or the second sub-bearer (52, 62) being released, controlling releasing of the third sub-bearer (53, 63).
A composite resin composition, comprising: 15 to 20 % by weight of a first vinyl cyanide compound-conjugated diene compound-aromatic vinyl compound copolymer; 9 to 15 % by weight of a second vinyl cyanide compound-conjugated diene compound-aromatic vinyl compound copolymer; 32 to 40 % by weight of an aromatic vinyl compound-vinyl cyanide compound copolymer; and 29 to 37 % by weight of a polyester resin, wherein the content (%) of the aromatic vinyl compound comprised in the first vinyl cyanide compound-conjugated diene compound-aromatic vinyl compound copolymer is smaller than a content (%) of the aromatic vinyl compound comprised in the second vinyl cyanide compound-conjugated diene compound-aromatic vinyl compound copolymer, and wherein the intrinsic viscosity of the polyester resin is within a range of 1.1 to 1.3 dl/ g measured by using a viscometer at 20°C, as disclosed in the description. 15 to 20 % by weight of a first vinyl cyanide compound-conjugated diene compound-aromatic vinyl compound copolymer; 9 to 15 % by weight of a second vinyl cyanide compound-conjugated diene compound-aromatic vinyl compound copolymer; 32 to 40 % by weight of an aromatic vinyl compound-vinyl cyanide compound copolymer; and 29 to 37 % by weight of a polyester resin, wherein the content (%) of the aromatic vinyl compound comprised in the first vinyl cyanide compound-conjugated diene compound-aromatic vinyl compound copolymer is smaller than a content (%) of the aromatic vinyl compound comprised in the second vinyl cyanide compound-conjugated diene compound-aromatic vinyl compound copolymer, and wherein the intrinsic viscosity of the polyester resin is within a range of 1.1 to 1.3 dl/ g measured by using a viscometer at 20°C, as disclosed in the description.
A system for supplying liquefied gas as fuel to a combustion engine, comprising a gas supply line for supplying liquefied gas from a liquefied gas source to the combustion engine, and a detector of a minimum level of the liquefied gas in the gas source, characterized in that the detector is in the supply line and comprises a PTC probe arranged in the heart of the flow of gas and is configured for detecting the occurrence of the change from the liquid phase of the liquefied gas to the gaseous phase in the supply line.
An inducer comprising: a hub; a blade which radially protrudes from the hub and is helically provided; a wedge surface which is provided on a negative-pressure surface side of the blade so as to be inclined with respect to a chamber line connecting intermediate points between the negative-pressure surface and a positive-pressure surface of the blade and toward a leading edge, wherein a first distance between the camber line and the leading edge coincides with a second distance between the camber line and the positive-pressure surface of the blade in a region radially outward from a position at which a height ratio of the blade is 0.5, wherein the height ratio of the blade is a ratio of a distance from a connection portion between the hub and a root portion of the blade with respect to a height of the blade which is a distance from the connection portion between the hub and the root portion of the blade to a tip portion of the blade in the radial direction of the blade, characterized in that the inducer comprises a thick portion, in which the first distance is less than the second distance, on the positive-pressure surface in a region radially inward from the position at which the height ratio of the blade is 0.5. a hub; a blade which radially protrudes from the hub and is helically provided; a wedge surface which is provided on a negative-pressure surface side of the blade so as to be inclined with respect to a chamber line connecting intermediate points between the negative-pressure surface and a positive-pressure surface of the blade and toward a leading edge, wherein a first distance between the camber line and the leading edge coincides with a second distance between the camber line and the positive-pressure surface of the blade in a region radially outward from a position at which a height ratio of the blade is 0.5, wherein the height ratio of the blade is a ratio of a distance from a connection portion between the hub and a root portion of the blade with respect to a height of the blade which is a distance from the connection portion between the hub and the root portion of the blade to a tip portion of the blade in the radial direction of the blade, characterized in that the inducer comprises a thick portion, in which the first distance is less than the second distance, on the positive-pressure surface in a region radially inward from the position at which the height ratio of the blade is 0.5.