mhurhangee/ep-ind-claims huggingface dataset:
An oral care implement (100, 200) comprising: a handle (120, 220) having a longitudinal axis (A-A) and a head (110, 210) connected to the handle (120, 220); the handle (120, 220) comprising an upper transverse section (122, 222) and a lower transverse section (121, 221), the upper transverse section (122, 222) coupled to the lower transverse section (121, 221); a decorative member (150, 250) disposed between the upper transverse section (122, 222) and the lower transverse section (121, 221); and an aperture (140, 240) extending through the upper transverse section (122, 222) that exposes at least a portion (151, 251) of the decorative member (150, 250); characterized in that the aperture (140, 240) forms a basin (145, 245) in the upper transverse section (122, 222), a top surface (153, 253) of the decorative member (150, 250) forming a floor of the basin (145, 245), and the basin (145, 245) comprising a wall extending upward from the floor of the basin (145, 245) and terminating at an outer surface of the upper transverse section (122, 222). a handle (120, 220) having a longitudinal axis (A-A) and a head (110, 210) connected to the handle (120, 220); the handle (120, 220) comprising an upper transverse section (122, 222) and a lower transverse section (121, 221), the upper transverse section (122, 222) coupled to the lower transverse section (121, 221); a decorative member (150, 250) disposed between the upper transverse section (122, 222) and the lower transverse section (121, 221); and an aperture (140, 240) extending through the upper transverse section (122, 222) that exposes at least a portion (151, 251) of the decorative member (150, 250);
A knitted component, comprising: a forefoot portion having a top layer and a bottom layer; a heel area extending from the bottom layer of the forefoot portion in a longitudinal direction and secured to the bottom layer of the forefoot portion via at least one common knit structure; and at least one extension extending from the heel area in a second direction when the knitted component is in an unfolded state, the second direction being different than the longitudinal direction, the knitted component being characterized in that the top layer extends through at least a medial side and a lateral side, wherein a void for receiving the forefoot is formed between the top layer and the bottom layer, and wherein the top layer is secured to the bottom layer via the at least one common knit structure. a forefoot portion having a top layer and a bottom layer; a heel area extending from the bottom layer of the forefoot portion in a longitudinal direction and secured to the bottom layer of the forefoot portion via at least one common knit structure; and at least one extension extending from the heel area in a second direction when the knitted component is in an unfolded state, the second direction being different than the longitudinal direction, the knitted component being characterized in that the top layer extends through at least a medial side and a lateral side, wherein a void for receiving the forefoot is formed between the top layer and the bottom layer, and wherein the top layer is secured to the bottom layer via the at least one common knit structure.
A door hinge for aluminum doors comprising a first hinge part and a second hinge part, which in each case have at least one reel section (2a, 2b) and which are connected to one another on the reel sections (2a, 2b) so as to be capable of rotating about a vertical axis of rotation, wherein a hinge strap, which extends away from the at least one reel section of the second hinge part, is inserted with its free end into a slit of an accommodation of the second hinge part, which can be fastened to an extruded profile, and wherein at least one adjusting spindle, which extends into the slit and engages with an assigned thread of the accommodation in such a way by means of a threaded section that the immersion depth of the hinge strap into the slit can be adjusted by rotating the adjusting spindle, is held on the hinge strap, and wherein the accommodation comprises at least one fixing screw, which is arranged with its longitudinal screw axis at an angle to the hinge strap, characterized in that the fixing screw pushes directly onto the hinge strap after a tightening and thus eliminates the play required for an adjustment by means of the adjusting spindle, and that the longitudinal screw axis is arranged at an oblique angle with respect to the hinge strap and, in the area of the fixing screw, the accommodation has a section, which runs diagonally with respect to the hinge strap, in which the fixing screw is inserted.
Drive system for a motor vehicle, comprising at least two electric machines (1, 3), which are configured to apply a torque to an axle or a wheel of the motor vehicle; at least one computer unit, which is configured to determine a distribution of a specified mechanical drive power, which is to be applied by the totality of the electric machines (1, 3) to the wheels or axles of the motor vehicle, to the individual electric machines (1, 3); and at least one control unit for controlling the power output of the electric machines (1, 3), which is configured to control the electric machines (1, 3) according to the determined power distribution, so that the totality of the electric machines (1, 3) produces the specified mechanical drive power; characterised in that the drive system additionally comprises at least one internal combustion engine; and the drive system has at least one electric machine (1, 3), which is arranged on a transmission, on a crankshaft or on an axle, and comprises at least one belt-driven starter generator; and that the computer unit is configured to determine the power loss of the electric machines (1, 3) from a loss characteristic diagram stored in the drive system, from which the power loss of an electric machine (1, 3) including additional losses by other components, which are required for the power transmission from the electric machine (1, 3), can be determined as a function of the speed and the torque of the electric machine (1, 3); and to determine a distribution of a specified mechanical power, which is to be applied by the totality of the electric machines (1, 3) to the wheels or axles of the motor vehicle, to the individual electric machines (1, 3), in which the sum of the power losses of the electric machines (1, 3) is minimised.
A compound of formula: or a tautomer thereof, N-oxide thereof, stereoisomer thereof, or pharmaceutically acceptable salt thereof, wherein R a, R b, R c and R d are each independently selected from hydrogen, halogen, substituted or unsubstituted C 1-3 alkyl; X is CR x or N; Y is CR y or N; Z is CR z or N; R x, R y and R z are independently selected from hydrogen, halogen or substituted or unsubstituted C 1-3 alkyl; G is selected from wherein R e and R f are independently selected from hydrogen, halogen, hydroxy, substituted or unsubstituted alkyl, substituted or unsubstituted alkoxy, -OR g, or both R e and R f may be joined to form an C 3-6 cycloalkyl or heterocyclic ring; R g is selected from hydrogen, substituted or unsubstituted C 1-3 alkyl, or - R h; R h is selected from hydrogen or substituted or unsubstituted alkyl and R 1, R 2, R 3 and R 4 are each independently selected from hydrogen, halogen, haloalkyl and substituted or unsubstituted alkyl. or a tautomer thereof, N-oxide thereof, stereoisomer thereof, or pharmaceutically acceptable salt thereof, wherein R a, R b, R c and R d are each independently selected from hydrogen, halogen, substituted or unsubstituted C 1-3 alkyl; X is CR x or N; Y is CR y or N; Z is CR z or N; R x, R y and R z are independently selected from hydrogen, halogen or substituted or unsubstituted C 1-3 alkyl; G is selected from wherein R e and R f are independently selected from hydrogen, halogen, hydroxy, substituted or unsubstituted alkyl, substituted or unsubstituted alkoxy, -OR g, or both R e and R f may be joined to form an C 3-6 cycloalkyl or heterocyclic ring; R g is selected from hydrogen, substituted or unsubstituted C 1-3 alkyl, or - R h; R h is selected from hydrogen or substituted or unsubstituted alkyl and R 1, R 2, R 3 and R 4 are each independently selected from hydrogen, halogen, haloalkyl and substituted or unsubstituted alkyl. R e and R f are independently selected from hydrogen, halogen, hydroxy, substituted or unsubstituted alkyl, substituted or unsubstituted alkoxy, -OR g, or both R e and R f may be joined to form an C 3-6 cycloalkyl or heterocyclic ring; R g is selected from hydrogen, substituted or unsubstituted C 1-3 alkyl, or - R h; R h is selected from hydrogen or substituted or unsubstituted alkyl and R 1, R 2, R 3 and R 4 are each independently selected from hydrogen, halogen, haloalkyl and substituted or unsubstituted alkyl.
A multiple channel VPN system, which comprises a VPN client manager and a VPN server manager at a client device and a server device, respectively; characterized in that said VPN client manager and said VPN server manager are configured to simultaneously establish each of a plurality of VPN channels (250a-250n) between said client device and said server device, so that said simultaneously established VPN channels are simultaneously available for a VPN communication, wherein at least one of said simultaneously established VPN channels has a highest security level relative to other simultaneously established VPN channels, at least one of said simultaneously established VPN channels has a lowest security level relative to the other simultaneously established VPN channels, and at least one of said simultaneously established VPN channels has a medium security level relative to the other simultaneously established VPN channels that is a lower security level than the highest security level and higher than the lowest security level.
A method for efficient optimisation of memory storage allocation and bandwidth utilisation in heterogeneous and distributed computer networks: - Storing a set of user data on a computing unit requesting storage space; - segmenting the set of user data to generate user data segments, wherein the individual user data segments cannot be interpreted and the user data segments are generated randomly from the set of user data; - Identifying a number of computing units offering storage space, which in their entirety are set up to store the payload data segments; - Outsourcing the user data segments to the computing units providing storage space, such that the amount of user data is stored in a distributed manner in the computer network; and - Collective transmission of the user data segments from the computing units offering storage space to the computing unit requesting storage space at the latter's request for restoring the set of user data, characterised in that a first subset of user data is transmitted in encrypted form and a second subset of user data is transmitted in unencrypted form. - Storing a set of user data on a computing unit requesting storage space; - segmenting the set of user data to generate user data segments, wherein the individual user data segments cannot be interpreted and the user data segments are generated randomly from the set of user data; - Identifying a number of computing units offering storage space, which in their entirety are set up to store the payload data segments; - Outsourcing the user data segments to the computing units providing storage space, such that the amount of user data is stored in a distributed manner in the computer network; and - Collective transmission of the user data segments from the computing units offering storage space to the computing unit requesting storage space at the latter's request for restoring the set of user data, characterised in that a first subset of user data is transmitted in encrypted form and a second subset of user data is transmitted in unencrypted form.
Process for the preparation of a furfural derivative having the chemical formula wherein R represents hydrogen, an alkyl group or an acyl group, which process comprises reacting a fructose- and/or glucose-containing starting material with a liquid hydroxyl group-containing compound of formula R-OH in the presence of an acid catalyst at a reaction temperature in the range of 150 to 300 °C to produce an acid reaction mixture comprising the furfural derivative of chemical formula, which acid reaction mixture has a pH-value of smaller than 3; neutralizing the acid reaction mixture to a pH-value in the range of 3 to 6.5 to provide a partially neutralized reaction mixture; and purifying the partially neutralized reaction mixture to recover the furfural derivative of chemical formula. wherein R represents hydrogen, an alkyl group or an acyl group, which process comprises reacting a fructose- and/or glucose-containing starting material with a liquid hydroxyl group-containing compound of formula R-OH in the presence of an acid catalyst at a reaction temperature in the range of 150 to 300 °C to produce an acid reaction mixture comprising the furfural derivative of chemical formula, which acid reaction mixture has a pH-value of smaller than 3; neutralizing the acid reaction mixture to a pH-value in the range of 3 to 6.5 to provide a partially neutralized reaction mixture; and purifying the partially neutralized reaction mixture to recover the furfural derivative of chemical formula.
An equipment for the production of filtering panels made up of a filtering fabric locked and tensioned inside a frame consisting of two mutually coupled half frames (7a,7b), said equipment including a press and a mould half movable with respect to a fixed mould half, characterized in that said moving mould half is provided with a mould insert sliding between a first position, for moulding the half frame of the panel, and a second position, for moulding the second half frame of the same panel on said half frame.
A method of reporting information related to Positioning Reference Signal, PRS, measurement by a user equipment, UE, in a wireless communication system, the method comprising: receiving first information related to a PRS resource set including a plurality of PRS resources, Identifications of each of the plurality of PRS resources and second information related to Bandwidth, BW, of the PRS resource set, wherein the BW including a plurality of Resource Blocks, RBs; receiving PRSs via the plurality of PRS resources, wherein the PRSs are transmitted through different transmission beams; measuring a time of arrival, ToA, for each of the plurality of PRS resources included in the PRS resource set; measuring a Reference Signal Time Difference, RSTD, for each of the PRSs; and transmitting identification of a PRS resource with a smallest ToA among the plurality of PRS resources, wherein the PRSs corresponding to the plurality of PRS resources included in the PRS resource set are received from the same Transmission and Reception Point, TRP, wherein a first PRS Resource Element, RE, density is configured to first number of RBs from a RB with index N to a highest RB of the BW and second number of RBs from lowest RB of the BW to a RB with index N-m, wherein a second PRS RE density is configured to third number of RBs from a RB with index N-m+1 to a RB with index N-1, and wherein the second PRS RE density is higher than the first PRS RE density, and wherein the PRSs are received for performing observed time difference of arrival, OTDOA, based positioning. receiving first information related to a PRS resource set including a plurality of PRS resources, Identifications of each of the plurality of PRS resources and second information related to Bandwidth, BW, of the PRS resource set, wherein the BW including a plurality of Resource Blocks, RBs; receiving PRSs via the plurality of PRS resources, wherein the PRSs are transmitted through different transmission beams; measuring a time of arrival, ToA, for each of the plurality of PRS resources included in the PRS resource set; measuring a Reference Signal Time Difference, RSTD, for each of the PRSs; and transmitting identification of a PRS resource with a smallest ToA among the plurality of PRS resources, wherein the PRSs corresponding to the plurality of PRS resources included in the PRS resource set are received from the same Transmission and Reception Point, TRP, wherein a first PRS Resource Element, RE, density is configured to first number of RBs from a RB with index N to a highest RB of the BW and second number of RBs from lowest RB of the BW to a RB with index N-m, wherein a second PRS RE density is configured to third number of RBs from a RB with index N-m+1 to a RB with index N-1, and wherein the second PRS RE density is higher than the first PRS RE density, and wherein the PRSs are received for performing observed time difference of arrival, OTDOA, based positioning.
A water tank of an automatic beverage machine, in particular an automatic coffee machine, with a container and a cover closing off the top of the said container, and a container bottom closing off the bottom of the container, and the bottom with a lower surface comprises an opening and an annular valve holding boss with a substantially cylindrical inner surface that extends down from the lower surface in surrounding relation to the opening with a shoulder and inside the annular valve holding boss a tank valve is provided, which slidably fits within the inner surface of the annular valve holding boss, wherein the tank valve has an elongated vertical body, that on an upper end comprises a gasket that tightly closes the opening when the tank is removed from the beverage machine, and a base ring arranged on a lower end of the body which guides the sliding movement of the tank valve inside the annular valve holding boss, characterized in that the inner cylindrical surface of the annular valve holding boss comprises at least one groove shaped recess in relation to the annular valve holding boss, wherein the recess is provided such that water or air can flow through the recess between the base ring of the tank valve and the annular valve holding boss.
A method for preparing a polymer comprising physically blending a mixture of particles comprising at least a first and a second polymer precursor, wherein the first polymer precursor is capable of reacting with the second polymer precursor to form a polymer, wherein the first and second polymer precursor are selected from the group consisting of amine-containing compounds, alcohol-containing compounds and carbonyl-containing compounds, and aging the mixture at a temperature and for a time sufficient for the polymer precursors to react with each other and form a polymer gel, wherein the temperature is from 20°C to 600°C and wherein the time is from 1 hour to 48 hours, and wherein the mixture comprises less than 10% solvent by weight.
A peramivir solution inhalant, wherein the solution inhalant comprises: peramivir; an osmotic pressure regulator; a pH regulator; sodium dihydrogen phosphate; and water, wherein concentration of peramivir is greater than 15 mg/ml; concentration of the osmotic pressure regulator is less than 8 mg/ml; pH value of the solution inhalant ranges from 5.0 to 6.0; the solution inhalant is sterilized in a non-heating manner; wherein the osmotic pressure regulator refers to sodium chloride, and concentration of the sodium dihydrogen phosphate ranges from 0.05 to 0.2 mg/ml. peramivir; an osmotic pressure regulator; a pH regulator; sodium dihydrogen phosphate; and water, wherein concentration of peramivir is greater than 15 mg/ml; concentration of the osmotic pressure regulator is less than 8 mg/ml; pH value of the solution inhalant ranges from 5.0 to 6.0; the solution inhalant is sterilized in a non-heating manner; wherein the osmotic pressure regulator refers to sodium chloride, and concentration of the sodium dihydrogen phosphate ranges from 0.05 to 0.2 mg/ml.
A method comprising: transmitting a firing signal to a laser light source of a LIDAR sensor assembly to cause the laser light source to emit light toward a reference surface mechanically coupled to the LIDAR sensor assembly, the reference surface being part of a stationary portion of the LIDAR sensor assembly, the stationary portion mechanically coupled to a rotatable assembly rotatable relative to the stationary portion, and the stationary portion configured to remain stationary as the rotatable assembly rotates, the rotatable assembly including the laser light source; receiving a signal from a light sensor of the LIDAR sensor assembly; and detecting, based at least in part on the received signal, reflected light corresponding to reflection of the emitted light from the reference surface. transmitting a firing signal to a laser light source of a LIDAR sensor assembly to cause the laser light source to emit light toward a reference surface mechanically coupled to the LIDAR sensor assembly, the reference surface being part of a stationary portion of the LIDAR sensor assembly, the stationary portion mechanically coupled to a rotatable assembly rotatable relative to the stationary portion, and the stationary portion configured to remain stationary as the rotatable assembly rotates, the rotatable assembly including the laser light source; receiving a signal from a light sensor of the LIDAR sensor assembly; and detecting, based at least in part on the received signal, reflected light corresponding to reflection of the emitted light from the reference surface.
A ski boot, comprising a ski boot shell and a ski boot sole (2, 3), wherein the ski boot sole (2, 3) comprises a front end of the ski boot sole, a rear end of the ski boot sole, a lower side of the sole and a free upper side of the sole via which the ski boot sole (2, 3) protrudes forwards, backwards and/or laterally beyond the ski boot shell, wherein the lower side of the sole comprises a first bearing region for placing upright on a bearing plate of a ski binding, and a second bearing region for walking without skis, and a width of the ski boot sole (2, 3) in the second bearing region is larger than a width of the ski boot sole (2, 3) in the first bearing region, characterised in that the ski boot is a children's ski boot, wherein when a ski boot is placed on a level plane, a distance between the front end of the free upper side of the sole and the plane is 23 mm ± 3 mm, wherein the second bearing region is curved convexly, at least in the longitudinal direction of the boot, and an apical point of the second bearing region - which comprises a contact point or contact line or contact area of the ski boot sole (2, 3) of the ski boot which is placed on a level plane and exhibits a length of the sole - has a distance (a) from the front end of the sole, wherein a ratio a/L has a value of 0.3 ± 0.05 and preferably 0.3 ± 0.03, and wherein the first bearing region comprises a hard component which exhibits a Shore D hardness of preferably more than 45, and the second bearing region preferably comprises a soft component which exhibits a Shore A hardness of preferably 65 to 85.