mhurhangee/ep-ind-claims huggingface dataset:
A slider-equipped window glass comprising: a window glass mounted on a side door (14, 18) of a vehicle so as to be vertically movable up and down and having two sides, and a slider attached to a vehicle inner surface of at least one of said two sides of the window glass, along the up-and-down movement direction, and being movable up and down along an up-and-down movement guide member fixed to said side door, wherein said slider is an integrally molded product comprising an inner layer portion and an outer layer portion, said inner layer portion is bonded to said vehicle inner surface of the window glass, said outer layer portion is located at the vehicle inner surface side of the inner layer portion and made of a material harder than said inner layer portion, said outer layer portion has an engaging portion (26, 26A) to engage with said up-and-down movement guide member, and said inner layer portion of the slider is made of a thermoplastic elastomer, and said outer layer portion is made of a thermoplastic elastomer containing fibers. a window glass mounted on a side door (14, 18) of a vehicle so as to be vertically movable up and down and having two sides, and a slider attached to a vehicle inner surface of at least one of said two sides of the window glass, along the up-and-down movement direction, and being movable up and down along an up-and-down movement guide member fixed to said side door, wherein said slider is an integrally molded product comprising an inner layer portion and an outer layer portion, said inner layer portion is bonded to said vehicle inner surface of the window glass, said outer layer portion is located at the vehicle inner surface side of the inner layer portion and made of a material harder than said inner layer portion, said outer layer portion has an engaging portion (26, 26A) to engage with said up-and-down movement guide member, and said inner layer portion of the slider is made of a thermoplastic elastomer, and said outer layer portion is made of a thermoplastic elastomer containing fibers.
Device for controlling a load flow in an alternating-voltage network, wherein the device includes: - a modular series connection of bipolar switching modules, which can be serially inserted into a phase line of the alternating-voltage network, wherein each switching module exhibits an energy-storage device and also power semiconductors that are capable of being driven and capable of being switched on and off, and is capable of being driven in such a manner that at its poles (32, 33) a switching-module voltage can be generated that corresponds to a positive or negative energy-storage voltage or to a voltage having the value zero, and - a control device for driving the switching modules, which has been set up to drive the switching modules in such a manner that a periodic longitudinal voltage can be generated at the modular series connection; characterized in that the device further includes - a further modular series connection of the bipolar switching modules, which can be inserted into an outgoing line of the alternating-voltage network which is connected to the phase line, and by means of which a longitudinal voltage can be generated, and also - an energy-exchange device which can be connected to the modular series connection and to the further modular series connection and which has been set up for the exchange of electrical energy between the phase line and the outgoing line. - a modular series connection of bipolar switching modules, which can be serially inserted into a phase line of the alternating-voltage network, wherein each switching module exhibits an energy-storage device and also power semiconductors that are capable of being driven and capable of being switched on and off, and is capable of being driven in such a manner that at its poles (32, 33) a switching-module voltage can be generated that corresponds to a positive or negative energy-storage voltage or to a voltage having the value zero, and - a control device for driving the switching modules, which has been set up to drive the switching modules in such a manner that a periodic longitudinal voltage can be generated at the modular series connection; - a further modular series connection of the bipolar switching modules, which can be inserted into an outgoing line of the alternating-voltage network which is connected to the phase line, and by means of which a longitudinal voltage can be generated, and also - an energy-exchange device which can be connected to the modular series connection and to the further modular series connection and which has been set up for the exchange of electrical energy between the phase line and the outgoing line.
A clean air apparatus (2, 4, 70) comprising clean air means for producing a flow of clean air and for discharging the clean air from an outlet and towards a target clean area, a Coanda effect device (22, 26) disposed at least adjacent the clean air means and arranged, in use, to induce a Coanda effect upon the flow of clean air, characterized in that the apparatus (2, 4, 70) comprises guide means for guiding the clean air towards a target clean area in the form of an air curtain.
A shovel enabled to set an engine revolution speed to a plurality of revolution speeds, the plurality of revolution speeds including: a revolution speed for a running operation, and a revolution speed for an idling running operation that is lower than the revolution speed for the running operation, the shovel comprising: an engine provided as a driving source of the shovel; an operating part (1, 3, 4, 6) configured to be driven by a driving force of the engine; an operation component (26A, 26B, 26C, 26D) configured to operate the operating part (1, 3, 4, 6); characterized by an image capturing device arranged at a position apart from the operating component (26A, 26B, 26C, 26D) and configured to detect a position of a movable portion of an operator; an operation determining part configured to determine a positional relationship between the movable portion of the operator and the operation component (26A, 26B, 26C, 26D); and a control part configured to set the engine revolution speed of the engine based on the positional relationship between the movable portion of the operator and the operation component that is determined by the operation determining part. an engine provided as a driving source of the shovel; an operating part (1, 3, 4, 6) configured to be driven by a driving force of the engine; an operation component (26A, 26B, 26C, 26D) configured to operate the operating part (1, 3, 4, 6); characterized by an image capturing device arranged at a position apart from the operating component (26A, 26B, 26C, 26D) and configured to detect a position of a movable portion of an operator; an operation determining part configured to determine a positional relationship between the movable portion of the operator and the operation component (26A, 26B, 26C, 26D); and a control part configured to set the engine revolution speed of the engine based on the positional relationship between the movable portion of the operator and the operation component that is determined by the operation determining part.
An at least partially implantable medical device comprising: - at least one unit for recognising electromagnetic interference, at least containing a sensor or indicator for electromagnetic interference fields and at least one timer, - at least one control unit connectable to the unit for recognising electromagnetic interference, - at least one electrode line that is connected to the control unit and that has an electrode at the other end, wherein the control unit is configured to perform a reconstruction of electrical measurements captured by the at least one electrode line for timeframes in which electromagnetic interference is recognised, characterised in that the control unit is configured, depending on the length of the interference, to automatically select a reconstruction method for the reconstruction of the measured data between timeframes without a detected electromagnetic interference. - at least one unit for recognising electromagnetic interference, at least containing a sensor or indicator for electromagnetic interference fields and at least one timer, - at least one control unit connectable to the unit for recognising electromagnetic interference, - at least one electrode line that is connected to the control unit and that has an electrode at the other end, wherein
Bolt mechanism with lock for containers for valuables goods, having a mechanical bolt mechanism, which has two bolts, and a lock that interacts with the bolt mechanism for locking the bolt mechanism, the lock having a housing, a bolt, a locking element and a spring element, wherein the bolt is arranged in the housing so as to be displaceable between a locking position extended from the housing, in which the bolt mechanism is locked, and an open position retracted into the housing, wherein the bolt can be locked in the locking position by means of the locking element, and wherein the spring element acting on the bolt with a force which urges the bolt in the direction of the locked position, characterized in that the bolt has, at its end projecting from the housing, two slopes which are both designed to interact in each case with a bolt of the bolt mechanism and which each extend at an angle ∝ to the direction of movement of the bolt, and in that the end of the bolt projecting from the housing in the locked state has a trapezoidal base surface. wherein the bolt is arranged in the housing so as to be displaceable between a locking position extended from the housing, in which the bolt mechanism is locked, and an open position retracted into the housing, wherein the bolt can be locked in the locking position by means of the locking element, and wherein the spring element acting on the bolt with a force which urges the bolt in the direction of the locked position, characterized in that the bolt has, at its end projecting from the housing, two slopes which are both designed to interact in each case with a bolt of the bolt mechanism and which each extend at an angle ∝ to the direction of movement of the bolt, and in that the end of the bolt projecting from the housing in the locked state has a trapezoidal base surface.
Aqueous polymer dispersion which is a polyurethane dispersion containing at least one compound V selected from trimethylolpropane triacetoacetate, ethylene bis(acetoacetamide), malonic acid bisamide, dimethyl 1,3-acetone dicarboxylate, malonic acid dihydrazide, 2-cyanoacetoacetamide, methyl cyanoacetate, 2-cyano-N-(2-hydroxyethyl)acetamide and methyl 2-(2-hydroxyethylcarbamoyl)ethanol and in particular 2-cyano-N-(2-hydroxyethyl)acetamide and methyl 2-(2-hydroxyethylcarbamoyl)ethanol.
An optical scanner, comprising: a housing configured to accommodate optical scanning parts(31,32,33); a lid member configured to cover the housing; and a light source body configured to irradiate a plurality of light beams toward the optical scanning parts(31,32,33), wherein the light source body includes a cylindrical columnar main frame configured to irradiate the light beams from a front end thereof and a disc portion protruding radially outward from an outer circumferential surface of the main frame at a rear end side of the main frame opposite to the front end thereof, the housing including a side plate having a through-hole and an outer surface, the side plate including a support member installed on the outer surface, the support member having an arc surface formed to extend along a peripheral edge portion of the through-hole, the optical scanner further comprising a pressing member configured to press the disc portion of the light source body against the arc surface of the support member in such a state that the front end of the main frame is inserted into the through-hole and that an end surface of the disc portion makes contact with the side plate of the housing, wherein the pressing member is an elastic piece fixed to the lid member at one end and remaining free at the other end, the pressing member is one-piece formed with the lid member and is configured such that, when the lid member is mounted to the housing, the pressing member makes contact with the outer circumferential surface of the disc portion to press the disc portion by an elastic force. a housing configured to accommodate optical scanning parts(31,32,33); a lid member configured to cover the housing; and a light source body configured to irradiate a plurality of light beams toward the optical scanning parts(31,32,33), wherein the light source body includes a cylindrical columnar main frame configured to irradiate the light beams from a front end thereof and a disc portion protruding radially outward from an outer circumferential surface of the main frame at a rear end side of the main frame opposite to the front end thereof, the housing including a side plate having a through-hole and an outer surface, the side plate including a support member installed on the outer surface, the support member having an arc surface formed to extend along a peripheral edge portion of the through-hole, the optical scanner further comprising a pressing member configured to press the disc portion of the light source body against the arc surface of the support member in such a state that the front end of the main frame is inserted into the through-hole and that an end surface of the disc portion makes contact with the side plate of the housing,
A method for relative uplink channel estimation, the method being performed by a terminal device, the method comprising: transmitting reference signals from at least two antennas (T1, T2) on respective uplink channels towards a network node, wherein the reference signals are transmitted using one transmit branch (Tx1, Tx2) per antenna (T1, T2) of the at least two antennas (T1, T2) such that the reference signals are transmitted using as many transmit branches (Tx1, Tx2) as there are antennas (T1, T2); receiving a forwarded representation of each of the reference signals from the network node, wherein the forwarded representations of the reference signals are received on at least one receive branch (Rx1, Rx2); and estimating a relation between the uplink channels towards the network node for the at least two antennas (T1, T2) using the reference signals and the received forwarded representations of the reference signals, thereby estimating the relative uplink channel, towards the network node, between the at least two antennas (T1, T2), wherein the relation between the uplink channels for a given one of the at least one receive branch (Rx1, Rx2) is determined as a ratio between the forwarded representations of the reference signals as received on this given receive branch (Rx1, Rx2). transmitting reference signals from at least two antennas (T1, T2) on respective uplink channels towards a network node, wherein the reference signals are transmitted using one transmit branch (Tx1, Tx2) per antenna (T1, T2) of the at least two antennas (T1, T2) such that the reference signals are transmitted using as many transmit branches (Tx1, Tx2) as there are antennas (T1, T2); receiving a forwarded representation of each of the reference signals from the network node, wherein the forwarded representations of the reference signals are received on at least one receive branch (Rx1, Rx2); and estimating a relation between the uplink channels towards the network node for the at least two antennas (T1, T2) using the reference signals and the received forwarded representations of the reference signals, thereby estimating the relative uplink channel, towards the network node, between the at least two antennas (T1, T2), wherein the relation between the uplink channels for a given one of the at least one receive branch (Rx1, Rx2) is determined as a ratio between the forwarded representations of the reference signals as received on this given receive branch (Rx1, Rx2).
A method for use in a wireless communication system comprising a transmitter, T, and a receiver, R, the method comprising: [1.1] a first process comprising the step of: [1.1.1] pseudo-randomly generating, as a function of a seed, a first code set of m pseudo-random codes, where m is greater than 1, by using a cryptographically secure pseudo-random generator; and [1.2] a second process comprising the steps of: [1.2.1] in T: [1.2.1.1] receiving from the first process a transmitter code set comprising the first code set; [1.2.1.2] transmitting the transmitter code set; and [1.2.2] in R: [1.2.2.1] receiving from the first process a receiver code set comprising the first code set; [1.2.2.2] receiving a channel-distorted form of the transmitter code set; [1.2.2.3] developing a set of m channel correlations by correlating each code of the receiver code set with the corresponding code of the channel-distorted form of the transmitter code set; and [1.2.2.4] developing a channel estimate by accumulating the set of m channel correlations. [1.1] a first process comprising the step of: [1.1.1] pseudo-randomly generating, as a function of a seed, a first code set of m pseudo-random codes, where m is greater than 1, by using a cryptographically secure pseudo-random generator; and [1.2] a second process comprising the steps of: [1.2.1] in T: [1.2.1.1] receiving from the first process a transmitter code set comprising the first code set; [1.2.1.2] transmitting the transmitter code set; and [1.2.2] in R: [1.2.2.1] receiving from the first process a receiver code set comprising the first code set; [1.2.2.2] receiving a channel-distorted form of the transmitter code set; [1.2.2.3] developing a set of m channel correlations by correlating each code of the receiver code set with the corresponding code of the channel-distorted form of the transmitter code set; and [1.2.2.4] developing a channel estimate by accumulating the set of m channel correlations. [1.2.1] in T: [1.2.1.1] receiving from the first process a transmitter code set comprising the first code set; [1.2.1.2] transmitting the transmitter code set; and [1.2.1.1] receiving from the first process a transmitter code set comprising the first code set; [1.2.1.2] transmitting the transmitter code set; and [1.2.2] in R: [1.2.2.1] receiving from the first process a receiver code set comprising the first code set; [1.2.2.2] receiving a channel-distorted form of the transmitter code set; [1.2.2.3] developing a set of m channel correlations by correlating each code of the receiver code set with the corresponding code of the channel-distorted form of the transmitter code set; and [1.2.2.4] developing a channel estimate by accumulating the set of m channel correlations. [1.2.2.1] receiving from the first process a receiver code set comprising the first code set; [1.2.2.2] receiving a channel-distorted form of the transmitter code set; [1.2.2.3] developing a set of m channel correlations by correlating each code of the receiver code set with the corresponding code of the channel-distorted form of the transmitter code set; and [1.2.2.4] developing a channel estimate by accumulating the set of m channel correlations.
A quick coupling plug connection assembly with a body exhibiting a borehole proceeding from an opening, a collar (7, 7') fixed to the body, a tube, said tube exhibiting a final shape with a free end and a radial compression, a retainer situated in the borehole and a safety element (24, 24'), wherein the collar (7, 7') exhibits an entry hole (8, 8'), wherein the final shape of the tube is inserted or can be inserted through the entry hole (8, 8') and the opening into the borehole, wherein the borehole exhibits a bracket section adjacent to a collar-side end, said bracket section incorporating the retainer, wherein the radial compression of the end shape completely or essentially completely introduced into the borehole can be detachably latched with the retainer, wherein the safety element (24, 24') exhibits a guide section (26, 26') oriented transverse or essentially transverse to a longitudinal axis of the borehole and a contact section oriented parallel or essentially parallel to the longitudinal axis of the borehole, said contact section extending into the borehole, wherein the guide section (26, 26') on an outer surface of the collar (7, 7') can be displaced in a guide of the collar oriented transverse to the longitudinal axis of the borehole one dimensionally or essentially one dimensionally from a released position into a secured position, preferably reversibly, when the radial compression of the end shape is detachably latched with the retainer, wherein a radial distance between the end shape and contact section is smaller in the secured position than the radial distance between the end shape and contact section in the released position, wherein the guide is designed as a guide channel (35, 35'), characterized in that the guide channel (35, 35') has an open design on the side facing away from the body, and that the safety element (24, 24') is designed as an L-profile, wherein a leg of the L-profile is formed by the guide section (26, 26') and another leg by the contact section (25, 25'), and wherein a right angle or roughly a right angle is formed between the guide section (26, 26') and contact section (25, 25').
Axially damping hydraulic mount with a frustoconical elastomer support spring arranged between a mount core and an upper part of an outer jacket (3, 3'), and a working chamber for receiving a fluid damping means and an equalising chamber enclosed by an elastomer bellows, protected by a lower part of the outer jacket (3, 3'), which is separated from the working chamber by a separating element (7, 8, 8') extending transversely with respect to a longitudinal axis with a separating membrane, wherein on the separating element (7, 8, 8') a duct enclosed by at least one substantially rigid duct (8, 8) is formed which enables transfer of damping means between the working chamber and the equalising chamber, characterised in that the at least one duct part (8, 8') has a low elastic resilience and is thereby able to vibrate and is occupied by an additional mass, to which end the at least one duct part (8, 8') is rigidly connected to at least one additionally arranged mass element (10, 10'), whereby a detuning of a component natural resonance of the mount is achieved, through which this component natural resonance is displaced to frequencies outside of the audible range.