mhurhangee/ep-ind-claims huggingface dataset:
Connecting device for connecting a table leg to a table leaf, which connecting device comprises: a) a back-gripping element, which is configured or can be disposed in or on the table leaf and has an engagement hole (18, 20), b) a locking device, which is configured or can be disposed in or on the table leg, comprising - a clamping element, having an engagement hook which is designed to engage in the engagement hole (18, 20) of the back-gripping element, - a spring element which is supported, on the one hand, at least indirectly against the clamping element and, on the other hand, at least indirectly against a spring abutment, and - an actuating element, characterized in that c) the actuating element acts at least indirectly on the spring abutment such that - in a locking position, the spring abutment is in a position in which the spring element applies sufficient force to secure the engagement hook of the clamping element in the engagement hole of the back-gripping element, and such that - in an unlocking position, the spring abutment is in a position in which the spring element is at least partially unloaded in relation to the locking position. a) a back-gripping element, which is configured or can be disposed in or on the table leaf and has an engagement hole (18, 20), b) a locking device, which is configured or can be disposed in or on the table leg, comprising - a clamping element, having an engagement hook which is designed to engage in the engagement hole (18, 20) of the back-gripping element, - a spring element which is supported, on the one hand, at least indirectly against the clamping element and, on the other hand, at least indirectly against a spring abutment, and - an actuating element, - a clamping element, having an engagement hook which is designed to engage in the engagement hole (18, 20) of the back-gripping element, - a spring element which is supported, on the one hand, at least indirectly against the clamping element and, on the other hand, at least indirectly against a spring abutment, - an actuating element, c) the actuating element acts at least indirectly on the spring abutment such that - in a locking position, the spring abutment is in a position in which the spring element applies sufficient force to secure the engagement hook of the clamping element in the engagement hole of the back-gripping element, and such that - in an unlocking position, the spring abutment is in a position in which the spring element is at least partially unloaded in relation to the locking position. - in a locking position, the spring abutment is in a position in which the spring element applies sufficient force to secure the engagement hook of the clamping element in the engagement hole of the back-gripping element, and such that - in an unlocking position, the spring abutment is in a position in which the spring element is at least partially unloaded in relation to the locking position.
A system for checking airflow within a container (207, 307) having a refrigeration unit (120, 220, 320), the system comprising: one or more sensors located within the container (207, 307) configured to measure at least one airflow characteristic; and a controller in communication with the one or more sensors, the controller configured to: store predetermined information related to airflow within the container (207, 307), wherein the predetermined information includes minimum airflow criteria related to the at least one airflow characteristic; receive data from the one or more sensors; compare the received data with the predetermined information; and provide an indicator when the comparison indicates that the received data does not meet or exceed the minimum airflow criteria; characterized in that at least one sensor of the one or more sensors is a proximity sensor, and the measured airflow characteristic does not meet or exceed the minimum airflow criteria if the proximity sensor detects an object within a predetermined proximity to a wall of the container. one or more sensors located within the container (207, 307) configured to measure at least one airflow characteristic; and a controller in communication with the one or more sensors, the controller configured to: store predetermined information related to airflow within the container (207, 307), wherein the predetermined information includes minimum airflow criteria related to the at least one airflow characteristic; receive data from the one or more sensors; compare the received data with the predetermined information; and provide an indicator when the comparison indicates that the received data does not meet or exceed the minimum airflow criteria; store predetermined information related to airflow within the container (207, 307), wherein the predetermined information includes minimum airflow criteria related to the at least one airflow characteristic; receive data from the one or more sensors; compare the received data with the predetermined information; and provide an indicator when the comparison indicates that the received data does not meet or exceed the minimum airflow criteria; characterized in that at least one sensor of the one or more sensors is a proximity sensor, and the measured airflow characteristic does not meet or exceed the minimum airflow criteria if the proximity sensor detects an object within a predetermined proximity to a wall of the container.
A method for preparing an enriched IgG composition from plasma, the method comprising the steps of: (a) precipitating a cryo-poor plasma fraction, in a first precipitation step, with between 6% and 10% (v/v) alcohol at a pH of between 7.0 and 7.5 to obtain a first precipitate and a first supernatant; (b) precipitating IgG from the first supernatant, in a second precipitation step, with between 20% and 25% (v/v) alcohol at a pH of between 6.7 and 7.3 to form a second precipitate; (c) re-suspending the second precipitate to form a suspension; (d) precipitating IgG from the suspension formed in step (c), in a third precipitation step, with between 22% and 28% (v/v) alcohol at a pH of between 6.7 and 7.3 to form a third precipitate; (e) re-suspending the third precipitate to form a suspension; and (f) separating the soluble fraction from the suspension formed in step (e), thereby forming an enriched IgG composition, wherein the pH of at least one of the first precipitation step, second precipitation step, or third precipitation step is achieved by addition of a pH modifying solution after addition of the alcohol, and wherein optionally, the pH of the precipitation step is additionally also modified before the addition of alcohol, during the addition of alcohol, or before, and during the addition of alcohol. (a) precipitating a cryo-poor plasma fraction, in a first precipitation step, with between 6% and 10% (v/v) alcohol at a pH of between 7.0 and 7.5 to obtain a first precipitate and a first supernatant; (b) precipitating IgG from the first supernatant, in a second precipitation step, with between 20% and 25% (v/v) alcohol at a pH of between 6.7 and 7.3 to form a second precipitate; (c) re-suspending the second precipitate to form a suspension; (d) precipitating IgG from the suspension formed in step (c), in a third precipitation step, with between 22% and 28% (v/v) alcohol at a pH of between 6.7 and 7.3 to form a third precipitate; (e) re-suspending the third precipitate to form a suspension; and (f) separating the soluble fraction from the suspension formed in step (e), thereby forming an enriched IgG composition,
A computer-implemented method for virtual source denoising, comprising: receiving seismic shot gather data from a computer data store for processing; separating the received seismic shot gather data into downgoing and upgoing wavefields, wherein a time-frequency-wavenumber, i.e., t-f-k, three-dimensional, i.e., 3D, data cube is formed, and wherein the t-f-k 3D data cube comprises multiple time-frequency, i.e., t-f slices; wavelet transforming (1010, 1020) the downgoing wavefields from a time, i.e., t, domain to a t-f domain and the upgoing wavefields from the t domain to the t-f domain; performing a wavelet cross-correlation between the downgoing wavefields in the t-f domain and the upgoing wavefields in a t-f-k domain to generate wavelet cross-correlated data; performing soft-threshold filtering for each t-f slice of the t-f-k 3D data cube; performing an inverse wavelet transform to bring wavelet cross-correlated data from the t-f-k domain to a time-receiver, i.e., t-x, domain; and looping over all seismic shots of the received seismic shot gather data and stacking the wavelet cross-correlated data as a virtual source gather. receiving seismic shot gather data from a computer data store for processing; separating the received seismic shot gather data into downgoing and upgoing wavefields, wherein a time-frequency-wavenumber, i.e., t-f-k, three-dimensional, i.e., 3D, data cube is formed, and wherein the t-f-k 3D data cube comprises multiple time-frequency, i.e., t-f slices; wavelet transforming (1010, 1020) the downgoing wavefields from a time, i.e., t, domain to a t-f domain and the upgoing wavefields from the t domain to the t-f domain; performing a wavelet cross-correlation between the downgoing wavefields in the t-f domain and the upgoing wavefields in a t-f-k domain to generate wavelet cross-correlated data; performing soft-threshold filtering for each t-f slice of the t-f-k 3D data cube; performing an inverse wavelet transform to bring wavelet cross-correlated data from the t-f-k domain to a time-receiver, i.e., t-x, domain; and looping over all seismic shots of the received seismic shot gather data and stacking the wavelet cross-correlated data as a virtual source gather.
Composite reflector for a traffic guiding means such as a guard rail, a concrete step barrier, a traffic delineator or the like, the composite reflector comprising: - at least one reflective layer (10, 20), wherein the at least one reflective layer (10, 20) comprises a first surface (11, 21) forming an outer surface (101, 102) of the composite reflector and a second surface (12, 22) opposite to the first surface (11, 21), and - at least one reinforcement layer (30, 40), wherein the at least one reinforcement layer (30, 40) comprises a first surface (31, 41) bonded to the second surface (12, 22) of the at least one reflective layer (10, 20) and a second surface (32, 42) opposite to the first surface (31, 41) wherein the composite reflector is essentially T-shaped, the crossbeam of the T forming a mounting section and the middle beam of the T forming a protruding section; and wherein the composite reflector further comprises a first double-sided adhesive tape, wherein the second surface (32, 42) of the at least one reinforcement layer (30, 40) is bonded along the protruding section by the first double-sided adhesive tape. - at least one reflective layer (10, 20), wherein the at least one reflective layer (10, 20) comprises a first surface (11, 21) forming an outer surface (101, 102) of the composite reflector and a second surface (12, 22) opposite to the first surface (11, 21), and - at least one reinforcement layer (30, 40), wherein the at least one reinforcement layer (30, 40) comprises a first surface (31, 41) bonded to the second surface (12, 22) of the at least one reflective layer (10, 20) and a second surface (32, 42) opposite to the first surface (31, 41)
Artificial joint implant, having a first implant part, a second implant part, and at least one fixing element for fixing the first and the second implant part (20, 22) to each other in a non-positive- and/or positive-locking manner in a connecting position, characterized in that the at least one fixing element and the first implant part are moveably coupled to each other in a non-detachable manner, in such a way that the at least one fixing element is detachable from the first implant part only by destroying the at least one fixing element or the first implant part, and in that the at least one fixing element is integrally formed.
A packet processing method, implemented by a service function forwarder, SFF, comprising: receiving a first packet comprising a first packet header and service data; replacing the first packet header of the first packet with a second packet header to obtain a second packet, wherein the second packet comprises a first identifier, a second identifier and the service data, wherein the first identifier is used to uniquely identify the first packet header; sending the second packet to a service function, SF, device, wherein the second identifier is used to indicate that the second packet comprises the first identifier, and instruct the SF to add the first identifier to a third packet; receiving the third packet from the SF, wherein the third packet comprises the first identifier and processed service data; replacing, based on a mapping relationship between the first identifier and the first packet header, a third packet header of the third packet with the first packet header to obtain a fourth packet, wherein the fourth packet comprises the processed service data and the first packet header; and sending the fourth packet to a next-hop node. receiving a first packet comprising a first packet header and service data; replacing the first packet header of the first packet with a second packet header to obtain a second packet, wherein the second packet comprises a first identifier, a second identifier and the service data, wherein the first identifier is used to uniquely identify the first packet header; sending the second packet to a service function, SF, device, wherein the second identifier is used to indicate that the second packet comprises the first identifier, and instruct the SF to add the first identifier to a third packet; receiving the third packet from the SF, wherein the third packet comprises the first identifier and processed service data; replacing, based on a mapping relationship between the first identifier and the first packet header, a third packet header of the third packet with the first packet header to obtain a fourth packet, wherein the fourth packet comprises the processed service data and the first packet header; and sending the fourth packet to a next-hop node.
An electroless gold plating composition comprising: a) one or more water soluble gold compounds selected from alkali gold thiosulfate compounds and gold halides; b) one or more gold complexing agents, wherein the one or more gold complexing agents are chosen from thiosulfuric acid and thiosulfate salts; c) one or more organic stabilizer compounds of the formula R-SO 2 -Y wherein R is (C 1 -C 18)alkyl, aryl, or heteroaryl and Y is hydrogen or a monovalent cation; and d) one or more uniformity enhancers selected from organic carboxylic acids capable of providing chelation; wherein the composition is free of cyanide ion and sulfite ion. a) one or more water soluble gold compounds selected from alkali gold thiosulfate compounds and gold halides; b) one or more gold complexing agents, wherein the one or more gold complexing agents are chosen from thiosulfuric acid and thiosulfate salts; c) one or more organic stabilizer compounds of the formula R-SO 2 -Y wherein R is (C 1 -C 18)alkyl, aryl, or heteroaryl and Y is hydrogen or a monovalent cation; and d) one or more uniformity enhancers selected from organic carboxylic acids capable of providing chelation;
Pump assembly, particularly for water-carrying cleaning appliances comprising a drive module with a stator, with a rotor held on a shaft of the drive module so as to be rotatable relative to the stator, and with a housing that circumferentially encloses at least portions of the stator, comprising an impeller held on the shaft for pumping liquid and comprising a hydraulic unit (2, 25, 29) with an intake port (17, 27, 30) through which the liquid can be delivered to the impeller, characterised in that between the drive module and the hydraulic unit (2, 25, 29) an integrally designed adapter is provided which is connected to the drive module on the one hand and to the hydraulic unit (2, 25, 29) on the other, and which has - a can body, that extends between the rotor and the stator of the drive module and encloses the rotor on an end face facing away from the impeller, - a can flange adjoining the can body on a side facing the impeller, wherein the can flange projects radially outward from the can body at least in portions, - a tubular portion that circumferentially encloses the impeller at least partially and delimits a pump chamber containing the impeller; - a discharge port formed on the tubular portion for discharging the liquid from the pump chamber. - a can body, that extends between the rotor and the stator of the drive module and encloses the rotor on an end face facing away from the impeller, - a can flange adjoining the can body on a side facing the impeller, wherein the can flange projects radially outward from the can body at least in portions, - a tubular portion that circumferentially encloses the impeller at least partially and delimits a pump chamber containing the impeller; - a discharge port formed on the tubular portion for discharging the liquid from the pump chamber.
A glycerine based oil-free jelly composition comprising; vegetable derived glycerine and a glucoside-based emulsifier, wherein said glucoside-based emulsifier is any known and / or commercially available glucoside containing emulsifier and wherein said jelly comprises at least 80 percent by weight of glycerine and said jelly comprises no more than 20 per cent by weight of said emulsifier.
A staple cartridge for use with a surgical stapling device that has an anvil having a staple forming surface moveable between open and closed positions, the cartridge comprising; a plurality of staples facing a staple forming surface of an anvil; and a plurality of staple drivers (330a, 330b, 370a, 370b) moveable supported within the staple cartridge, wherein each staple driver supports one of the plurality of staples such that when the staple drivers are actuated, the plurality of staples are forced into contact with a staple forming surface of an anvil to form closed staples, wherein a first quantity of the staple drivers (370a, 370b) have a first height and a second quantity of the staple drivers (330a, 330b) have a second height (D, E), characterized in that: the first height is less than the second height (D, E) such that the staples driven by the first quantity of staple drivers have a longer formed height than the staples driven by the second quantity of staple drivers, and all of the staples have the same pre-formation prong length. the first height is less than the second height (D, E) such that the staples driven by the first quantity of staple drivers have a longer formed height than the staples driven by the second quantity of staple drivers, and all of the staples have the same pre-formation prong length.
Apparatus for introducing objects into a continuous flow of material, comprising: - a reservoir for providing a plurality of objects; - a rotatable transfer wheel for transporting the objects to an insertion unit for introducing the objects into the continuous flow of material; - a transfer chamber for transferring the objects to the rotatable transfer wheel, the transfer chamber being arranged between the reservoir and the rotatable transfer wheel, wherein the rotatable transfer wheel is provided with recesses into which the objects can be transferred and in which the objects can be retained through the application of suction until the objects are delivered from the rotatable transfer wheel to the insertion unit for introducing the objects into the continuous flow of material, wherein the rotatable transfer wheel comprises a suction inlet arranged in the center of the rotatable transfer wheel such as to provide suction through the center of the rotatable wheel and comprising fluidic connections for providing a fluidic communication between the suction inlet and the recesses, characterized in that the rotatable transfer wheel comprises three adjacently arranged discs (30,31,32;34,35), a transfer disc comprising the recesses for receiving the objects from the transfer chamber, a connection disc (31;34;35) comprising at least a part of the fluidic connections between the suction inlet and the recesses, and a supply disc comprising the suction inlet arranged in the center of the supply disc, the connection disc (31;34;35) being arranged in between the supply disc and the transfer disc. - a reservoir for providing a plurality of objects; - a rotatable transfer wheel for transporting the objects to an insertion unit for introducing the objects into the continuous flow of material; - a transfer chamber for transferring the objects to the rotatable transfer wheel, the transfer chamber being arranged between the reservoir and the rotatable transfer wheel,
A head unit comprising: a plurality of heads each including a nozzle row including a plurality of nozzles configured to discharge liquid onto a medium, the nozzles being arranged along a first direction; and a body in which the plurality of the heads are arranged along a second direction intersecting with the first direction, wherein in a case in which a region on one side of a center of the body in the second direction is taken as a first region and a region on another side of the center of the body in the second direction is taken as a second region, in each of the first region and the second region, the nozzle rows of two or more of the plurality of heads correspond to a first color, and the nozzle rows of two or more of the plurality of heads correspond to a second color, and in a case in which one side of the body in the second direction is taken as a first side and another side of the body in the second direction as a second side, a color corresponding to the nozzle row at an nth position from the first side is the same as a color corresponding to the nozzle row at an nth position from the second side, with n being a positive integer, wherein in each of the first region and the second region, a color corresponding to the nozzle row at an nth position from the first side is the same as a color corresponding to the nozzle row at an nth position from the second side, with n being a positive integer. a plurality of heads each including a nozzle row including a plurality of nozzles configured to discharge liquid onto a medium, the nozzles being arranged along a first direction; and a body in which the plurality of the heads are arranged along a second direction intersecting with the first direction, wherein in a case in which a region on one side of a center of the body in the second direction is taken as a first region and a region on another side of the center of the body in the second direction is taken as a second region, in each of the first region and the second region, the nozzle rows of two or more of the plurality of heads correspond to a first color, and the nozzle rows of two or more of the plurality of heads correspond to a second color, and in a case in which one side of the body in the second direction is taken as a first side and another side of the body in the second direction as a second side, a color corresponding to the nozzle row at an nth position from the first side is the same as a color corresponding to the nozzle row at an nth position from the second side, with n being a positive integer, wherein in each of the first region and the second region, a color corresponding to the nozzle row at an nth position from the first side is the same as a color corresponding to the nozzle row at an nth position from the second side, with n being a positive integer.