mhurhangee/ep-ind-claims huggingface dataset:
Hinge device with dampening of the end portions of the opening and/or closing strokes of a door of an appliance, and comprising a first element assigned to be fixed to a body of the appliance and a second element assigned to be fixed to the door of said appliance, where said first and second elements, in an assembled condition, are mutually connected by means of a hinge pin for the rotation of the door along the end portions of the opening and closing strokes and along an interposed intermediate portion of the stroke around a rotation axis of said hinge pin; said device comprises a cradle means sliding along or within the first element, and a connecting rod means having an end connected by a respective rotation pins to the cradle means and the other end connected by a respective rotation pin to the second element, such that the rotation of the latter in the end portion of the opening stroke, in the intermediate portion of the stroke and in the end portion of the closing stroke, causes corresponding translations of the cradle means which slidably houses a linear damping means having two parts, one being slidable with respect to the other, such that the length of the damping means may vary from a minimum to a maximum, at which it elastically stretches as a result of the action of internal or external elastic means; said device is characterized in that each of said parts is provided with a respective sliding member (25, 27) the ends of each one of them sliding in first slots of the cradle means and in second slots of the first element, with their longitudinal extension being at least equal to or preferably greater than that of the first slots with which they are face-to-face, or vice versa; in the intermediate portion of the stroke of the door, the damping means is at its maximum or nearly maximum length, and the sliding members (25, 27) of its parts contact or nearly contact the ends of the first slots of the cradle means and such sliding members (25, 27) slide into the second slots of the first element or vice versa; in the end portions of the opening and closing strokes of the door, one of said sliding members (25, 27) is in contact with one end of the first slots and the other (27, 25) is in contact with one end of the second slots of the first element and the rotation of the door in the opening and closing direction causes the cradle means to slide in the corresponding direction of mutual approaching of the sliding members (25, 27) and the consequent compression of the damping means, which causes the rotational speed of the door to slow down in said end portions of the opening and closing strokes.
Hairstyling appliance comprising: - a gripping part - a mandrel having a longitudinal axis and mounted rotatable relative to the gripping part, around the longitudinal axis thereof, and - a rolling member configured to roll a lock of hair around the mandrel, - a movable protective hood mounted movable between a closed position in which the movable protective hood at least partially conceals the mandrel and the rolling member in order to limit access to the mandrel and to the rolling member, and an open position in which the movable protective hood at least partially frees access to the mandrel to allow the insertion of the lock of hair between the mandrel and the rolling member, the rolling member extends longitudinally relative to the mandrel and the rolling member comprises a proximal end (11.1) mounted pivotably relative to the mandrel, the rolling member being movable between a spaced apart position in which a distal end (11.2) of the rolling member is spaced apart from the mandrel in order to facilitate the insertion of a lock of hair between the rolling member and the mandrel and a closed position in which the rolling member is closed on the mandrel to press the lock of hair against the mandrel, the hairstyling appliance being characterised in that the rolling member is integral in rotation with the mandrel. - a gripping part - a mandrel having a longitudinal axis and mounted rotatable relative to the gripping part, around the longitudinal axis thereof, and - a rolling member configured to roll a lock of hair around the mandrel, - a movable protective hood mounted movable between a closed position in which the movable protective hood at least partially conceals the mandrel and the rolling member in order to limit access to the mandrel and to the rolling member, and an open position in which the movable protective hood at least partially frees access to the mandrel to allow the insertion of the lock of hair between the mandrel and the rolling member,
A method for the optimised arrangement of seats for capacity-neutral improvement of comfort for passengers in vehicles with articulated areas, wherein the articulated areas are in each case arranged between two body parts (10.1, 10.2) of the vehicle, characterised in that, for optimised arrangement of seats, folding seats are used, which are arranged on the side walls of the articulated areas of the vehicle and are positioned such that the folding seat in the folded state does not reduce the standing area or the gangway width in this area.
A bone anchoring device, including: an anchoring element having a shank for anchoring in bone and a head, a receiving part (5, 5', 5") configured to receive the head (3, 3', 3") of the anchoring element in a pivotable manner such that the shank can assume a plurality of angular positions including a predetermined angular position relative to the receiving part, the receiving part having a passage defining a central axis, a pressure member (6, 6', 6", 6′′′, 6"") configured to exert pressure onto the head to clamp the head in the receiving part, the pressure member being at least partially arranged in the passage, wherein the head (3, 3', 3′′′) includes a first position indication structure (34, 34', 34") that is configured to engage a second position indication structure (63, 63', 63b, 63d, 68, 68', 601, 602) of the pressure member (6, 6', 6", 6'", 6"") to provide an indication of the predetermined angular position of the shank relative to the receiving part, and the pressure member (6, 6', 6", 6′′′, 6ʺʺ) comprises a head receiving recess (62, 62', 62") to receive at least a portion of the head; characterized in that the pressure member further comprises a section (63, 63', 63") configured to encompass the head in such a manner that the head is held by friction in the head receiving recess. an anchoring element having a shank for anchoring in bone and a head, a receiving part (5, 5', 5") configured to receive the head (3, 3', 3") of the anchoring element in a pivotable manner such that the shank can assume a plurality of angular positions including a predetermined angular position relative to the receiving part, the receiving part having a passage defining a central axis, a pressure member (6, 6', 6", 6′′′, 6"") configured to exert pressure onto the head to clamp the head in the receiving part, the pressure member being at least partially arranged in the passage, wherein the head (3, 3', 3′′′) includes a first position indication structure (34, 34', 34") that is configured to engage a second position indication structure (63, 63', 63b, 63d, 68, 68', 601, 602) of the pressure member (6, 6', 6", 6'", 6"") to provide an indication of the predetermined angular position of the shank relative to the receiving part, and the pressure member (6, 6', 6", 6′′′, 6ʺʺ) comprises a head receiving recess (62, 62', 62") to receive at least a portion of the head; characterized in that the pressure member further comprises a section (63, 63', 63") configured to encompass the head in such a manner that the head is held by friction in the head receiving recess.
Apparatus for the detection of an operating pressure of a fuel pump for a motor vehicle, the apparatus comprising: - a rotational speed detection device which is designed to detect a rotational speed of the fuel pump; - a pump current detection device which is designed to detect an electric pump drive current of the fuel pump; - a pressure switch with a hysteresis effect; - a memory device which is designed to store a pump current/rotational speed performance map with at least two pressure reference points which are determined by way of the hysteresis effect of the pressure switch; and - a pressure determination device which is designed to determine a fuel pressure which prevails in the fuel pump in a manner which is based on the detected rotational speed, the detected pump drive current and the stored pump current/rotational speed performance map. - a rotational speed detection device which is designed to detect a rotational speed of the fuel pump; - a pump current detection device which is designed to detect an electric pump drive current of the fuel pump; - a pressure switch with a hysteresis effect; - a memory device which is designed to store a pump current/rotational speed performance map with at least two pressure reference points which are determined by way of the hysteresis effect of the pressure switch; and - a pressure determination device which is designed to determine a fuel pressure which prevails in the fuel pump in a manner which is based on the detected rotational speed, the detected pump drive current and the stored pump current/rotational speed performance map.
An agricultural harvester for processing a crop material flow having a driver assistance system for setting machine parameters of the harvester, wherein a working phase "crop material flow" is defined in which a crop material flow passes into the harvester and a working phase "no crop material flow" in which no crop material flow passes into the harvester, wherein the driver assistance system sets at least one machine parameter of the harvester in dependence on the working phase, wherein there is provided a material flow sensor with an evaluation unit for detecting the incoming crop material flow and the material flow sensor delivers a material flow signal with a time signal configuration, characterised in that the time signal configuration of the material flow signal is different in dependence on the respective working phase, wherein the characteristic of the time signal configuration of the material flow signal is considered for the difference, by the evaluation unit providing a digital filter in accordance with a filter specification, which from the material flow signal produces an indicator characterising the time signal configuration, in such a way that the digital filter cyclically produces a change value for the change in successive sensor signals and the digital filter cyclically increases or reduces the indicator in dependence on whether the magnitude of the change value does or does not exceed a predetermined tolerance threshold Tol and the evaluation unit ascertains the currently prevailing working phase from the indicator.
A method of improving transmission gain at a network element having a plurality of antennas, comprising: reducing a beam width of transmission to increase an open-loop beamforming gain; reducing a channel bandwidth of the transmission to increase a channel bandwidth gain; and increasing a sequence length of the transmission to increase a sequence length gain; wherein a gain improvement is based on the product of the open loop beamforming gain, the channel bandwidth gain and the sequence length gain. reducing a beam width of transmission to increase an open-loop beamforming gain; reducing a channel bandwidth of the transmission to increase a channel bandwidth gain; and increasing a sequence length of the transmission to increase a sequence length gain; wherein a gain improvement is based on the product of the open loop beamforming gain, the channel bandwidth gain and the sequence length gain.
A mapping device comprising circuitry configured to: - map data blocks of input bits of a first input bit stream onto first mapping symbols by use of constant composition distribution matching, CCDM, wherein said first mapping symbols are distributed according to a first predetermined probability distribution and represented by first signal points, - analyze the probability of occurrence of the first signal points representing the first mapping symbols and/or the probability of occurrence of earlier final mapping symbols previously generated by said mapping device, - determine a second probability distribution to be applied for mapping second input bits of a second input bit stream onto second mapping symbols, said second probability distribution being determined based on the analyzed probability of occurrence such that a desired final probability distribution of final mapping symbols is obtained, - map data blocks of input bits of a second input bit stream onto second mapping symbols by use of CCDM, wherein said second mapping symbols are distributed according to said second probability distribution and represented by second signal points, and - combine the first mapping symbols and the second mapping symbols into the final mapping symbols by an invertible linear combination using amplitude multiplication and addition. - map data blocks of input bits of a first input bit stream onto first mapping symbols by use of constant composition distribution matching, CCDM, wherein said first mapping symbols are distributed according to a first predetermined probability distribution and represented by first signal points, - analyze the probability of occurrence of the first signal points representing the first mapping symbols and/or the probability of occurrence of earlier final mapping symbols previously generated by said mapping device, - determine a second probability distribution to be applied for mapping second input bits of a second input bit stream onto second mapping symbols, said second probability distribution being determined based on the analyzed probability of occurrence such that a desired final probability distribution of final mapping symbols is obtained, - map data blocks of input bits of a second input bit stream onto second mapping symbols by use of CCDM, wherein said second mapping symbols are distributed according to said second probability distribution and represented by second signal points, and - combine the first mapping symbols and the second mapping symbols into the final mapping symbols by an invertible linear combination using amplitude multiplication and addition.
Artificial ventilation apparatus comprising a main gas circuit to convey a breathing gas, said main gas circuit comprising a micro blower and a non-return device arranged downstream from the micro blower, said apparatus further comprising: - a bypass circuit fluidically connected to the main gas circuit in an upstream connection site situated upstream from the micro blower and in a downstream connection site situated downstream from the non-return device, and - a safety solenoid valve arranged on the bypass circuit so as to control the gas streams in said bypass circuit, said safety solenoid valve being controlled by control means further comprising a microprocessor electronic card. - a bypass circuit fluidically connected to the main gas circuit in an upstream connection site situated upstream from the micro blower and in a downstream connection site situated downstream from the non-return device, and - a safety solenoid valve arranged on the bypass circuit so as to control the gas streams in said bypass circuit, said safety solenoid valve being controlled by control means further comprising a microprocessor electronic card.
A compound having formula wherein R 1 is methyl or ethyl; R 2 is hydrogen, methyl, CH 2 C(NH 2)(R 1)(CH 2 OH) or R 2 groups combine to form a difunctional C 2 -C 6 hydrocarbyl group; and X is a difunctional group selected from the group consisting of C 2 -C 20 hydrocarbyl, C 5 -C 20 cyclohydrocarbyl, C 6 -C 10 aryl, C 8 -C 20 aryl hydrocarbyl, C 4 -C 20 heterohydrocarbyl or C 10 -C 20 aryl heterohydrocarbyl, wherein said aryl groups are unsubstituted or substituted by a C 1 -C 20 hydrocarbyl group; and wherein said hydrocarbyl groups may be linear or branched, may comprise one or more double or triple bonds and/or may be substituted with one or more hydroxyl or alkoxy groups. wherein R 1 is methyl or ethyl; R 2 is hydrogen, methyl, CH 2 C(NH 2)(R 1)(CH 2 OH) or R 2 groups combine to form a difunctional C 2 -C 6 hydrocarbyl group; and X is a difunctional group selected from the group consisting of C 2 -C 20 hydrocarbyl, C 5 -C 20 cyclohydrocarbyl, C 6 -C 10 aryl, C 8 -C 20 aryl hydrocarbyl, C 4 -C 20 heterohydrocarbyl or C 10 -C 20 aryl heterohydrocarbyl, wherein said aryl groups are unsubstituted or substituted by a C 1 -C 20 hydrocarbyl group; and wherein said hydrocarbyl groups may be linear or branched, may comprise one or more double or triple bonds and/or may be substituted with one or more hydroxyl or alkoxy groups.
A fiber distribution system comprising: a feeder cable; a base and a demarcation cover defining a channel through which the feeder cable can be routed, the channel defining a breakout region at which a plurality of optical cables of the feeder cable can be accessed, the demarcation cover enclosing the breakout region, the base including a holding location configured to hold a plurality of fiber optic feeder terminations, the base further including one or more cable storage areas (126, 128), the demarcation cover enclosing the cable storage areas (126, 128); a plurality of fiber optic feeder terminations positioned in the holding location at the base; and a splitter having a plurality of outputs and a splitter input cable with connectorized end plugged into one of the feeder terminations, wherein a first output cable with a connectorized end is connectable to a splitter output, wherein a second output cable with a connectorized end is connectable to a feeder termination to provide a single service output; wherein a box cover is mounted to the base; and wherein the box cover is placed over the splitter, the feeder terminations, and the base to protect the interior components. a feeder cable; a base and a demarcation cover defining a channel through which the feeder cable can be routed, the channel defining a breakout region at which a plurality of optical cables of the feeder cable can be accessed, the demarcation cover enclosing the breakout region, the base including a holding location configured to hold a plurality of fiber optic feeder terminations, the base further including one or more cable storage areas (126, 128), the demarcation cover enclosing the cable storage areas (126, 128); a plurality of fiber optic feeder terminations positioned in the holding location at the base; and a splitter having a plurality of outputs and a splitter input cable with connectorized end plugged into one of the feeder terminations, wherein a first output cable with a connectorized end is connectable to a splitter output, wherein a second output cable with a connectorized end is connectable to a feeder termination to provide a single service output; wherein a box cover is mounted to the base; and wherein the box cover is placed over the splitter, the feeder terminations, and the base to protect the interior components.
A three-dimensional biocompatible, degradable soft tissue implant comprising a bio-printed composite scaffold being composed of: a collagen which comprises cured recombinant human collagen (rhCollagen) and a biocompatible synthetic polymer, wherein the scaffold comprises: a porous wall; an inner cavity at least partially enclosed within the porous wall; and at least one injection port that connects the inner cavity with an outer most surface of the scaffold, wherein said injection port has an opening sized to permit insertion of an injection device through said port, wherein the implant further comprises an injectable matrix which comprises rhCollagen which does not include curable groups within the inner cavity of the scaffold. a collagen which comprises cured recombinant human collagen (rhCollagen) and a biocompatible synthetic polymer, wherein the scaffold comprises: a porous wall; an inner cavity at least partially enclosed within the porous wall; and at least one injection port that connects the inner cavity with an outer most surface of the scaffold, wherein said injection port has an opening sized to permit insertion of an injection device through said port, wherein the implant further comprises an injectable matrix which comprises rhCollagen which does not include curable groups within the inner cavity of the scaffold. a porous wall; an inner cavity at least partially enclosed within the porous wall; and at least one injection port that connects the inner cavity with an outer most surface of the scaffold, wherein said injection port has an opening sized to permit insertion of an injection device through said port, wherein the implant further comprises an injectable matrix which comprises rhCollagen which does not include curable groups within the inner cavity of the scaffold.
A mounting apparatus comprising: one or more gas springs; a housing configured to couple the mounting apparatus to a fixed portion of a weapon mount and to secure the one or more gas springs, the one or more gas springs configured to provide one or more forces; one or more wire ropes associated with the one or more gas springs, each wire rope configured to be fixed at a first end to the fixed portion of the weapon mount and having a hook at a second end; one or more guides within the housing, the one or more guides configured to guide the one or more wire ropes; and one or more bearings configured to facilitate movement of the one or more wire ropes; wherein the one or more wire ropes are configured to be routed through the one or more guides using the one or more bearings, the hook at the second end of each wire rope is configured to be attached to one or more front portions of the weapon mount or a weapon in the weapon mount; and wherein the one or more wire ropes are configured to couple movement of the one or more gas springs to a tensile force on the one or more front portions of the weapon mount or the weapon so as to counter-balance a weight of the weapon in the weapon mount. one or more gas springs; a housing configured to couple the mounting apparatus to a fixed portion of a weapon mount and to secure the one or more gas springs, the one or more gas springs configured to provide one or more forces; one or more wire ropes associated with the one or more gas springs, each wire rope configured to be fixed at a first end to the fixed portion of the weapon mount and having a hook at a second end; one or more guides within the housing, the one or more guides configured to guide the one or more wire ropes; and one or more bearings configured to facilitate movement of the one or more wire ropes; wherein the one or more wire ropes are configured to be routed through the one or more guides using the one or more bearings, the hook at the second end of each wire rope is configured to be attached to one or more front portions of the weapon mount or a weapon in the weapon mount; and wherein the one or more wire ropes are configured to couple movement of the one or more gas springs to a tensile force on the one or more front portions of the weapon mount or the weapon so as to counter-balance a weight of the weapon in the weapon mount.