mhurhangee/ep-ind-claims huggingface dataset:
An antibody molecule that binds human tenascin-C comprising: (a) a heavy chain variable domain comprising the amino acid sequence of SEQ ID NO: 1; and (b) a light chain variable domain comprising the amino acid sequence of SEQ ID NO: 3, wherein said antibody molecule binds to the A1 domain of tenascin C with a higher affinity than an antibody comprising the VH domain of SEQ ID NO: 1 and the VL domain of SEQ ID NO: 7. (a) a heavy chain variable domain comprising the amino acid sequence of SEQ ID NO: 1; and (b) a light chain variable domain comprising the amino acid sequence of SEQ ID NO: 3,
Device for transporting a stack of folding boxes, comprising a support for the stack of folding boxes and at least one slider, the at least one slider projecting beyond the support in the vertical direction during the transport movement, and at least part of a return movement taking place in such a way that the at least one slider does not project beyond the support, the at least one slider being mounted on a first carriage of a first linear guide, characterized in that a first guide rail of the first linear guide is fastened to a second carriage of a second linear guide.
A hand sander and sanding disc fixture for attaching a sanding disc to a hand sander comprising: a table have a top; a sander storage station on the table, the sander storage station having a holder holding a hand sander having a sander pad on the top of the table; and an application station on the table, the application station having at least two datum pegs extending from the top of the table, the datum pegs hold a stack of sanding discs with attaching sides of the sanding discs facing away from the top of the table, the datum pegs passing through datum holes in the sanding discs, characterized in that the at least two datum pegs having datum surfaces configured to be received in datum notches in an outer diameter of the sander pad, the datum pegs aligning the sander pad with the sanding discs when the sander pad is pressed against the attaching side of the outermost sanding disc. a table have a top; a sander storage station on the table, the sander storage station having a holder holding a hand sander having a sander pad on the top of the table; and an application station on the table, the application station having at least two datum pegs extending from the top of the table, the datum pegs hold a stack of sanding discs with attaching sides of the sanding discs facing away from the top of the table, the datum pegs passing through datum holes in the sanding discs, characterized in that the at least two datum pegs having datum surfaces configured to be received in datum notches in an outer diameter of the sander pad, the datum pegs aligning the sander pad with the sanding discs when the sander pad is pressed against the attaching side of the outermost sanding disc.
A composition comprising at least one digestive enzyme as a plurality of coated digestive enzyme particles, wherein the at least one digestive enzyme is pancrelipase, wherein each particle contains a core comprising pancrelipase coated with an enteric coating, wherein the enteric coating comprises an enteric polymer and further comprises 4-10% talc based on the Total weight of the particle, wherein the composition has a moisture content of about 3% or less.
Method for testing an assembly of components of a vehicle having a drive train and at least one vehicle control device, that processes a drive train rotary speed (n P), and a braking system, that acts on the drive train, on a test stand, wherein the drive train of the vehicle is driven by a drive unit and the drive train has applied thereto a load torque (T D) by a load machine connected thereto, and at least one component of the assembly is controlled by the vehicle control device as a function of the drive train rotary speed (n P), characterized in that in a simulation unit using a simulation model for the at least one component of the assembly the instantaneous drive train rotary speed (n P) of the component is calculated from a drive train torque (T P) acting in the drive train and the braking effect of the braking system, and the calculated instantaneous drive train rotary speed (n P) is used by the vehicle control device for controlling the at least one component, and the calculated drive train rotary speed (n P) is used by a drive controller in order to control the load machine.
A method for determining a reception of a downlink signal by a user equipment in a wireless communication system, the method comprising: receiving configuration information, related to a periodic signal, through a higher layer signal, wherein the periodic signal is configured to be received through a set of symbols within each slot which is periodically configured, monitoring a physical downlink control channel, PDCCH, associated with a slot configuration of a slot to receive slot configuration information for the slot through which the periodic signal is to be received; and performing a process for receiving the periodic signal in the slot, characterised in that a slot format of each slot is configured by a higher layer and each symbol in the slot is configured to one of an uplink symbol, a downlink symbol, and a flexible symbol that is neither a downlink symbol nor an uplink symbol, when the set of symbols within the slot is configured to be a flexible symbol by the higher layer, reception of the periodic signal in the slot is selectively performed according to the monitoring result of the PDCCH, and the flexible symbol is a symbol which can be re-configured to be a downlink symbol, an uplink symbol or a flexible symbol according to the slot configuration information of the PDCCH. receiving configuration information, related to a periodic signal, through a higher layer signal, wherein the periodic signal is configured to be received through a set of symbols within each slot which is periodically configured, monitoring a physical downlink control channel, PDCCH, associated with a slot configuration of a slot to receive slot configuration information for the slot through which the periodic signal is to be received; and performing a process for receiving the periodic signal in the slot, characterised in that a slot format of each slot is configured by a higher layer and each symbol in the slot is configured to one of an uplink symbol, a downlink symbol, and a flexible symbol that is neither a downlink symbol nor an uplink symbol, when the set of symbols within the slot is configured to be a flexible symbol by the higher layer, reception of the periodic signal in the slot is selectively performed according to the monitoring result of the PDCCH, and the flexible symbol is a symbol which can be re-configured to be a downlink symbol, an uplink symbol or a flexible symbol according to the slot configuration information of the PDCCH.
An operating device comprising: a first light-emitting area provided on a front surface of the operating device; a first light-transmitting member that is formed with a material that transmits light and that makes up the first light-emitting area; a second light-emitting area provided on an upper surface of the operating device; a second light-transmitting member that is formed with a material that transmits light and that makes up the second light-emitting area; a light source; and a light guide member adapted to guide light of the light source to the first light-transmitting member and the second light-transmitting member, characterized in that the light guide member includes a first guide section arranged behind the first light-transmitting member to guide light to the first light-transmitting member, and a second guide section that extends upward beyond a position of the first light-transmitting member toward the second light-transmitting member, wherein the second guide section includes a light emission tip surface adapted to emit light from the second guide section, and when the operating device is seen in plan view, at least part of the light emission tip surface overlaps the second light-emitting area. a first light-emitting area provided on a front surface of the operating device; a first light-transmitting member that is formed with a material that transmits light and that makes up the first light-emitting area; a second light-emitting area provided on an upper surface of the operating device; a second light-transmitting member that is formed with a material that transmits light and that makes up the second light-emitting area; a light source; and a light guide member adapted to guide light of the light source to the first light-transmitting member and the second light-transmitting member, characterized in that the light guide member includes a first guide section arranged behind the first light-transmitting member to guide light to the first light-transmitting member, and a second guide section that extends upward beyond a position of the first light-transmitting member toward the second light-transmitting member, wherein a first guide section arranged behind the first light-transmitting member to guide light to the first light-transmitting member, and a second guide section that extends upward beyond a position of the first light-transmitting member toward the second light-transmitting member, wherein the second guide section includes a light emission tip surface adapted to emit light from the second guide section, and when the operating device is seen in plan view, at least part of the light emission tip surface overlaps the second light-emitting area.
A single dose device for preparing and administering through the buccal mucous a volume of an alcoholic solution containing at least one lipophilic active principle, comprising a container, a head suitable for taking up a conservation, first position P1 in which said head is in a distal position relative to the container, and an administration, second position P2 in which said head is in a proximal position relative to the container, said head including a cannula with at least one flow channel, its length being adapted so that the free end of the flow channel can enable delivery by sublingual and/or paragingival permeation, while the container is being held in the hand, said device including at least two compartments (52; 56), separated by a leakproof operculum (40; 54; 62), each compartment (52; 56) containing at least an active principle and/or an excipient and/or an antigen substance and/or a solvent, said device including perforation means for perforating the operculum(s) (40; 54; 62), said perforation means being disposed at the root of the cannula so as to enable the substances contained in said compartments to be mixed together in a determined order, the volume of said container being between 0,25 ml and 2 ml, characterized in that the cannula contains before actuation an active principle, an antigen substance, an excipient and/or a solvent.
A method for communicating with a user equipment, UE, the method being performed by a base station, the method comprising the steps of: identifying a plurality of service types requested by the UE; notifying the UE of configurations of a medium access control, MAC, layer and configurations of a physical, PHY, layer, wherein the MAC layer and the PHY layer are configured depending on the identified plurality of service types; and communicating with the UE based on the configurations of the MAC layer and the configurations of the PHY layer, wherein notifying the UE of the configurations of the MAC layer and the configurations of the PHY layer comprises: transmitting, to the UE, one or more data radio bearer, DRB, configurations corresponding to each of the service types, a MAC configuration corresponding to each of the service types, and a PHY configuration corresponding to each of the service types. identifying a plurality of service types requested by the UE; notifying the UE of configurations of a medium access control, MAC, layer and configurations of a physical, PHY, layer, wherein the MAC layer and the PHY layer are configured depending on the identified plurality of service types; and communicating with the UE based on the configurations of the MAC layer and the configurations of the PHY layer, wherein notifying the UE of the configurations of the MAC layer and the configurations of the PHY layer comprises: transmitting, to the UE, one or more data radio bearer, DRB, configurations corresponding to each of the service types, a MAC configuration corresponding to each of the service types, and a PHY configuration corresponding to each of the service types.
Mould for the femoral component of a knee spacer, comprising two sub-moulds (2, 3), which can be detached from each other, whereby a first sub-mould serves for forming the tibial side of the femoral component and a second sub-mould serves for forming the femoral bone side of the femoral component, whereby both sub-moulds (2, 3) can be connected to each other by means of one or more detachable locking facilities, characterised in that the detachable locking facilities are snap-in locks and the locking elements are provided such as to be integrated in the sub-moulds.
A computer-implemented method for processing seismic data corresponding to a subsurface, the method comprising: receiving input seismic data (d i) provided by a receiver comprising N spatial coordinates, wherein the input seismic data is in a first spatial domain; expanding the N spatial coordinates of the input seismic data (d i) to N' modified spatial coordinates, where N' is greater than N, to provide spatially expanded seismic data (d e) that is in a second spatial domain, characterized in that expanding said N spatial coordinates is conducted by executing a mapping function for each coordinate associated with the spatially expanded seismic data, thereby replacing non-linear responses in the input seismic data (d ¡) with pseudo-linear responses in the spatially expanded seismic data (d e); transforming the spatially expanded seismic data (d e) to a model domain to provide model domain data (d m); and generating a final image (d f) of the subsurface using the model domain data (d m). wherein the input seismic data is in a first spatial domain; expanding the N spatial coordinates of the input seismic data (d i) to N' modified spatial coordinates, where N' is greater than N, to provide spatially expanded seismic data (d e) that is in a second spatial domain, characterized in that expanding said N spatial coordinates is conducted by executing a mapping function for each coordinate associated with the spatially expanded seismic data, thereby replacing non-linear responses in the input seismic data (d ¡) with pseudo-linear responses in the spatially expanded seismic data (d e); transforming the spatially expanded seismic data (d e) to a model domain to provide model domain data (d m); and generating a final image (d f) of the subsurface using the model domain data (d m). transforming the spatially expanded seismic data (d e) to a model domain to provide model domain data (d m); and generating a final image (d f) of the subsurface using the model domain data (d m).
Use of any of the following alloys and/or materials, namely SnSb8Cu4, SnSb12Cu6Zn, CuSn12Ni2, CuAl10Fe1, tin and aluminum bronzes, aluminum materials and alloys made therefrom, for producing a sliding layer of a hydrodynamic slide bearing, by means of a laser-based application method of one of these alloys and/or materials to a base body, wherein the alloy and/or material for application is in the form of a powder or a compacted powder or in wire form, characterized in that the alloy is a tin-based alloy containing 11-14% antimony, 5-7% copper, 0.1-3% bismuth, 0.1-2% zinc and 0.01-0.5% tellurium.
An orthodontic bracket (10,20), comprising: a bracket base (21,121,401,601) which can be releasably securable to an anterior facing surface (42,411,622) of a patient's tooth; a bracket body (40,240,410,620) which moveably cooperates with the bracket base (21,121,401,601), and wherein the bracket body (40,240,410,620) has an anterior facing surface (42,411,622) which defines, at least in part, a transversely disposed arch wire slot (60,160,260,460,640) which communicates with the anterior facing surface (42,411,622) of the bracket body (40,240,410,620) and is configured to receive an archwire; a bracket body insert (100,200,300,480,500,660) which is releasably received within the transversely disposed arch wire slot (60,160,260,460,640), and which further forms, at least in part, a portion of the transversely disposed arch wire slot (60,160,260,460,640), and further selectively fixes the orientation of the moveable bracket body (40,240,410,620) relative to the bracket base (21,121,401,601), wherein the moveable bracket body (40,240,410,620), acting in combination with the bracket body insert (100,200,300,480,500,660), each are configured to respectively engage the arch wire to provide a multiplicity of torque expressions when the orthodontic bracket (10,20) is secured to the patient's tooth, and wherein the transversely disposed arch wire slot (60,160,260,460,640) has a cross-sectional dimension, and wherein the bracket body insert (100,200,300,480,500,660) is operable to selectively adjust the cross-sectional dimension of the transversely disposed arch wire slot (60,160,260,460,640). a bracket base (21,121,401,601) which can be releasably securable to an anterior facing surface (42,411,622) of a patient's tooth; a bracket body (40,240,410,620) which moveably cooperates with the bracket base (21,121,401,601), and wherein the bracket body (40,240,410,620) has an anterior facing surface (42,411,622) which defines, at least in part, a transversely disposed arch wire slot (60,160,260,460,640) which communicates with the anterior facing surface (42,411,622) of the bracket body (40,240,410,620) and is configured to receive an archwire; a bracket body insert (100,200,300,480,500,660) which is releasably received within the transversely disposed arch wire slot (60,160,260,460,640), and which further forms, at least in part, a portion of the transversely disposed arch wire slot (60,160,260,460,640), and further selectively fixes the orientation of the moveable bracket body (40,240,410,620) relative to the bracket base (21,121,401,601), wherein the moveable bracket body (40,240,410,620), acting in combination with the bracket body insert (100,200,300,480,500,660), each are configured to respectively engage the arch wire to provide a multiplicity of torque expressions when the orthodontic bracket (10,20) is secured to the patient's tooth, and wherein the transversely disposed arch wire slot (60,160,260,460,640) has a cross-sectional dimension, and wherein the bracket body insert (100,200,300,480,500,660) is operable to selectively adjust the cross-sectional dimension of the transversely disposed arch wire slot (60,160,260,460,640).
Paper that disintegrates quickly in water for use as filter material or filter wrapper paper of a cigarette filter, with the following properties: - at least 80% by weight, preferably at least 90% by weight and particularly preferably at least 95% by weight of the paper is formed by pulp fibers, - of said pulp fibers, at least 80% by weight, preferably at least 90% by weight and particularly preferably at least 95% by weight consists of a mixture of long fiber pulp and mercerized pulp, o wherein 0 to 90% by weight of said mixture consists of mercerized pulp and the rest of long fiber pulp, and o wherein the pulp fibers of said mixture have a freeness determined according to ISO 5267 of at most 30°SR, preferably at most 25°SR and particularly preferably at most 20°SR, - in a disintegration test using an apparatus described in TAPPI T 261, the paper exhibits a disintegration of at least 60%, preferably at least 70% and particularly preferably at least 80% after 30 seconds. - at least 80% by weight, preferably at least 90% by weight and particularly preferably at least 95% by weight of the paper is formed by pulp fibers, - of said pulp fibers, at least 80% by weight, preferably at least 90% by weight and particularly preferably at least 95% by weight consists of a mixture of long fiber pulp and mercerized pulp, o wherein 0 to 90% by weight of said mixture consists of mercerized pulp and the rest of long fiber pulp, and o wherein the pulp fibers of said mixture have a freeness determined according to ISO 5267 of at most 30°SR, preferably at most 25°SR and particularly preferably at most 20°SR, o wherein 0 to 90% by weight of said mixture consists of mercerized pulp and the rest of long fiber pulp, and o wherein the pulp fibers of said mixture have a freeness determined according to ISO 5267 of at most 30°SR, preferably at most 25°SR and particularly preferably at most 20°SR, - in a disintegration test using an apparatus described in TAPPI T 261, the paper exhibits a disintegration of at least 60%, preferably at least 70% and particularly preferably at least 80% after 30 seconds.
A computing apparatus (10x, 20x) for constituting a secure product-sum combination system in which three or more computing apparatuses (10x, 10y, 10z, 20x, 20y, 20z) cooperate to perform a secure function computation on secret values [A 0],..., [A n-1] concealed by encryption or secret sharing of n arbitrary values A 0,..., A n-1 greater than or equal to 0 and less than p by using a function f including addition and/or multiplication to compute a concealed function value as = [f([A 0],..., [A n-1]) mod p], where p is a prime and [] is a symbol representing that a value is concealed by encryption or secret sharing, wherein in the secure product-sum combination system, the assumptions [αa + β mod p] = α[a] + β mod p, a + b mod p = a + b mod p and and a ⋅ b mod p = a ⋅ b mod p hold for symbol [], where a, b, α and β are arbitrary values greater than or equal to 0 and less than p; and characterized in that the computing apparatus comprises: a random number generator (11x, 21x) cooperating with random number generators of at least other two computing apparatuses (10y, 10z, 20y, 20z) adapted to generate a secret value [r] of a random number r greater than or equal to 0 and less than p at first; a function calculator (12x, 22x) cooperating with function calculators of at least other two computing apparatuses (10y, 10z, 20y, 20z) adapted to compute concealed function values = [f([A 0],..., [A n-1]) mod p] and [C'] = [r · f([A 0],..., [A n-1]) mod p] by using the function f for the secret values [A 0],..., [A n-1]; and a tampering detector (13x, 23x) cooperating with tampering detectors of at least other two computing apparatuses (10y, 10z, 20y, 20z) to compute a secret value [r · C - C' mod p] and if [r · C - C' mod p] is, outputting, otherwise outputting information indicating that tampering has been detected. a random number generator (11x, 21x) cooperating with random number generators of at least other two computing apparatuses (10y, 10z, 20y, 20z) adapted to generate a secret value [r] of a random number r greater than or equal to 0 and less than p at first; a function calculator (12x, 22x) cooperating with function calculators of at least other two computing apparatuses (10y, 10z, 20y, 20z) adapted to compute concealed function values = [f([A 0],..., [A n-1]) mod p] and [C'] = [r · f([A 0],..., [A n-1]) mod p] by using the function f for the secret values [A 0],..., [A n-1]; and a tampering detector (13x, 23x) cooperating with tampering detectors of at least other two computing apparatuses (10y, 10z, 20y, 20z) to compute a secret value [r · C - C' mod p] and if [r · C - C' mod p] is, outputting, otherwise outputting information indicating that tampering has been detected.