mhurhangee/ep-ind-claims huggingface dataset:
A method executed by an apparatus comprising: operating in a first state; receiving a request to search for wireless networks while operating in the first state; determining whether to perform a search for wireless networks in the first state but not a second state, in the second state but not the first state, or in both the first and the second state; transitioning from the first state to a second state; and performing the search for wireless networks in at least one of the first state and the second state based on the determination, wherein performing the search comprises performing the search in the first state, if the first state is an idle state that comprises one or more of a CELL_PCH state, a URA_PCH state or an Idle mode in Universal Mobile Telecommunication System, UMTS, and continuing the search in the second state, if the second state is another idle state that comprises one or more of the CELL-PCH state, the URA_PCH state or the Idle mode in UMTS. operating in a first state; receiving a request to search for wireless networks while operating in the first state; determining whether to perform a search for wireless networks in the first state but not a second state, in the second state but not the first state, or in both the first and the second state; transitioning from the first state to a second state; and performing the search for wireless networks in at least one of the first state and the second state based on the determination, wherein performing the search comprises performing the search in the first state, if the first state is an idle state that comprises one or more of a CELL_PCH state, a URA_PCH state or an Idle mode in Universal Mobile Telecommunication System, UMTS, and continuing the search in the second state, if the second state is another idle state that comprises one or more of the CELL-PCH state, the URA_PCH state or the Idle mode in UMTS.
Lift installation comprising - a lift cage, - a guide rail (15; 48; 51), which is present on a first side of the lift cage, for vertical guidance of the lift cage and - several support means (22; 42.1, 42.2; 52.1 to 52.4), which extend parallel to one another and support a counterweight installed on the first side of the lift cage or the side opposite to the first side and which underloop the lift cage, wherein each of the support means (22; 42.1, 42.2; 52.1 to 52.4) is fastened by one end on the first side and by the other end on the opposite side of the lift cage at support means fixing points (28, 29) respectively present there, characterised in that a rocker device (30; 40) with two arms (30.1, 30.2) is fastened to the guide rail (15; 48; 51) which is so constructed that a rocking movement of the arms (30.1, 30.2) is possible, wherein a support means fixing point associated with the first side of the lift cage is provided at each of the two arms (30.1, 30.2) and the rocker device (30; 40) by the rocking movement prevents unequal loading of the two support means (22; 42.1, 42.2; 52.1 to 52.4). - a lift cage, - a guide rail (15; 48; 51), which is present on a first side of the lift cage, for vertical guidance of the lift cage and - several support means (22; 42.1, 42.2; 52.1 to 52.4), which extend parallel to one another and support a counterweight installed on the first side of the lift cage or the side opposite to the first side and which underloop the lift cage, wherein each of the support means (22; 42.1, 42.2; 52.1 to 52.4) is fastened by one end on the first side and by the other end on the opposite side of the lift cage at support means fixing points (28, 29) respectively present there, characterised in that a rocker device (30; 40) with two arms (30.1, 30.2) is fastened to the guide rail (15; 48; 51) which is so constructed that a rocking movement of the arms (30.1, 30.2) is possible, wherein a support means fixing point associated with the first side of the lift cage is provided at each of the two arms (30.1, 30.2) and the rocker device (30; 40) by the rocking movement prevents unequal loading of the two support means (22; 42.1, 42.2; 52.1 to 52.4).
An intraductal insertion device comprising a thrust generating section installed at an insertion portion, wherein: the thrust generating section includes a flexible shaft having an axis, a distal end and a proximal end, characterized in that the insertion portion has a first hole and a second hole on a same circumference of an outer circumferential face, where the first hole communicates between a through-hole formed through the insertion portion and the outside, wherein the thrust generating section is configured by placing, in the second hole, the flexible shaft led out of the through-hole via the first hole and thereby winding the flexible shaft at least half a turn or more around the outer circumferential face of the insertion portion, wherein the distal end of the flexible shaft is turnably placed in the second hole and integrally fixed to a shaft distal end member, which has a larger outside diameter size than a diameter size of the flexible shaft which prevents the distal end of the flexible shaft from coming off the second hole, and wherein the intraductal insertion device further comprises an operation/grasping section integrally fixed to the proximal end of the flexible shaft and configured to rotate the flexible shaft around the shaft axis. the thrust generating section includes a flexible shaft having an axis, a distal end and a proximal end, characterized in that the insertion portion has a first hole and a second hole on a same circumference of an outer circumferential face, where the first hole communicates between a through-hole formed through the insertion portion and the outside, wherein the thrust generating section is configured by placing, in the second hole, the flexible shaft led out of the through-hole via the first hole and thereby winding the flexible shaft at least half a turn or more around the outer circumferential face of the insertion portion, wherein the distal end of the flexible shaft is turnably placed in the second hole and integrally fixed to a shaft distal end member, which has a larger outside diameter size than a diameter size of the flexible shaft which prevents the distal end of the flexible shaft from coming off the second hole, and wherein the intraductal insertion device further comprises an operation/grasping section integrally fixed to the proximal end of the flexible shaft and configured to rotate the flexible shaft around the shaft axis.
Panel (A, B, C), wherein the panel has a rectangular shape; wherein the first and third sides are provided opposite to each other and the second and fourth sides are provided opposite to each other, each of the four sides of the panel having a profile selected from the following three profiles: - a groove-tongue profile having a continuous groove with a groove width and a groove depth, and a continuous tongue with different tongue thicknesses (F2, F3) and tongue lengths (f1, f2, f5); - a groove profile having a continuous groove with different groove widths (N1, N2, N3) and groove depths (n1, n2, n3); - a groove-double tongue profile having a continuous groove with a groove width and different groove depths, and a continuous double tongue (105, 107) with different tongue thicknesses (F1, F4, F5) and tongue lengths (f3, f4); wherein two opposite sides have the same profile; characterized in that the groove widths (N3, N4, N5) of the grooves (102, 106, 108) of the three profiles are configured such that corresponding tongues (103, 105, 107) of a to be coupled groove-tongue profile or a to be coupled groove-double tongue profile can be coupled at the upper and/or at the underside (O, U) of the panel (A, B, C) in a form fitting manner, and that the profiles are vertically locked and horizontally only slide into each other. wherein the first and third sides are provided opposite to each other and the second and fourth sides are provided opposite to each other, each of the four sides of the panel having a profile selected from the following three profiles: - a groove-tongue profile having a continuous groove with a groove width and a groove depth, and a continuous tongue with different tongue thicknesses (F2, F3) and tongue lengths (f1, f2, f5); - a groove profile having a continuous groove with different groove widths (N1, N2, N3) and groove depths (n1, n2, n3); - a groove-double tongue profile having a continuous groove with a groove width and different groove depths, and a continuous double tongue (105, 107) with different tongue thicknesses (F1, F4, F5) and tongue lengths (f3, f4); - a groove-tongue profile having a continuous groove with a groove width and a groove depth, and a continuous tongue with different tongue thicknesses (F2, F3) and tongue lengths (f1, f2, f5); - a groove profile having a continuous groove with different groove widths (N1, N2, N3) and groove depths (n1, n2, n3); - a groove-double tongue profile having a continuous groove with a groove width and different groove depths, and a continuous double tongue (105, 107) with different tongue thicknesses (F1, F4, F5) and tongue lengths (f3, f4); wherein two opposite sides have the same profile; characterized in that the groove widths (N3, N4, N5) of the grooves (102, 106, 108) of the three profiles are configured such that corresponding tongues (103, 105, 107) of a to be coupled groove-tongue profile or a to be coupled groove-double tongue profile can be coupled at the upper and/or at the underside (O, U) of the panel (A, B, C) in a form fitting manner, and that the profiles are vertically locked and horizontally only slide into each other.
A flexible structure, constituting the flexible packaging of a lithium electrochemical accumulator such as a Li-ion accumulator, comprising a strain gauge that is elongate along a longitudinal axis X1 and that is intended to measure deformation of the flexible structure in a direction X parallel to the axis X1, the carrier of the gauge being adhesively bonded to the flexible structure only by its lateral ends (75, 76).
A light distribution system of an LED lamp, comprising: an illuminated plane, a light source module disposed on one side of the illuminated plane, and a reflector disposed in the light-out direction of the light source module; the illuminated plane comprising a vertical direction, the light source module comprising a lens, the light-out direction of the lens being away from the illuminated plane, the lens comprising an optical axis perpendicular to a vertical direction and a light-out surface that converges the incident light and comprises a first contour line that is symmetric with respect to the optical axis in a cross section along the vertical direction and a second contour line that is symmetric with respect to the optical axis in a cross section along the optical axis and perpendicular to the vertical direction, a light-out angle of the second contour line being greater than that of the first contour line, a plane where the first contour line is located forming the light-out surface by scanning along the second contour line, the reflector being spaced apart from the lens; on a cross section formed by the vertical direction and the optical axis, a reflected light from the first contour line being emitted to one side of the optical axis after being reflected by the reflector; on a cross section formed by the optical axis and the direction perpendicular to the vertical direction, a reflected light from the second contour line being emitted to two sides of the optical axis after being reflected by the reflector, the reflected light of the reflector being emitted to the illuminated plane, characterized in that a light-out angle of the second contour line is greater than that of the first contour line.
A method for generating a spread spectrum Gaussian Minimum Shift Keying, GMSK, signal comprising: obtaining a sequence D(t) of data symbols for a data channel, obtaining at least one first spread spectrum code comprising a first sequence C D (t) of spread spectrum chips for the data channel, obtaining at least one second spread spectrum code comprising a second sequence C P (t) of spread spectrum chips for a pilot channel, generating a sequence r(t) of pre-modulation chips by combining the sequence D(t) of data symbols for the data channel with the spread spectrum chips of the first sequence C D (t) of the at least one first spread spectrum code and data symbols for the pilot channel with the spread spectrum chips of the second sequence C P (t) of the at least one second spread spectrum code to a combined sequence of chips, assigning the chips of the combined sequence of chips to the transmission channels In-Phase I and Quadrature Q of the spread spectrum GMSK signal so that not more than two consecutive pre-modulation chips generated with the same spread spectrum code are transmitted in the same transmission channel I or Q, and performing GMSK modulation g(t) using the sequence of pre-modulation chips to generate a spread spectrum GMSK signal s(t). obtaining a sequence D(t) of data symbols for a data channel, obtaining at least one first spread spectrum code comprising a first sequence C D (t) of spread spectrum chips for the data channel, obtaining at least one second spread spectrum code comprising a second sequence C P (t) of spread spectrum chips for a pilot channel, generating a sequence r(t) of pre-modulation chips by combining the sequence D(t) of data symbols for the data channel with the spread spectrum chips of the first sequence C D (t) of the at least one first spread spectrum code and data symbols for the pilot channel with the spread spectrum chips of the second sequence C P (t) of the at least one second spread spectrum code to a combined sequence of chips, assigning the chips of the combined sequence of chips to the transmission channels In-Phase I and Quadrature Q of the spread spectrum GMSK signal so that not more than two consecutive pre-modulation chips generated with the same spread spectrum code are transmitted in the same transmission channel I or Q, and performing GMSK modulation g(t) using the sequence of pre-modulation chips to generate a spread spectrum GMSK signal s(t).
A clothes dryer apparatus comprising: an electrically conductive, grounded, generally cylindrical rotatable drum having a hollow interior adapted to contain a load of wet clothes to be dried; characterized in that said drum has a partially indented exterior surface in which at least one generally ring-shaped insulated notch has been formed; positioned within each notch, an electrically conductive anode, coupled to each anode, a source of single frequency RF power, a plurality of air holes formed in the at least one insulated notch, whereby water evaporated from the load by the RF power is removed from the interior of the drum due to the resulting air flow forced through the plurality of air holes into the hollow interior of the drum. an electrically conductive, grounded, generally cylindrical rotatable drum having a hollow interior adapted to contain a load of wet clothes to be dried; characterized in that said drum has a partially indented exterior surface in which at least one generally ring-shaped insulated notch has been formed; positioned within each notch, an electrically conductive anode, coupled to each anode, a source of single frequency RF power, a plurality of air holes formed in the at least one insulated notch, whereby water evaporated from the load by the RF power is removed from the interior of the drum due to the resulting air flow forced through the plurality of air holes into the hollow interior of the drum.
Dishwasher in the form of a household dishwasher, having a wash tub for receiving dishes during a wash program, having a dish detection device for detecting the dishes put into the wash tub and having a control device for controlling the sequence of the wash program as a function of the detected dishes, characterised in that the dish detection device has a plurality of evaluation modules (28, 29, 30) which operate independently of one another and which are embodied in each instance to detect a type of dish consisting of the same type of material based on the signals of at least one sensor (20, 22) and/or based on at least one control parameter of the control device, so that the signals are evaluated with respect to a type of dish independently of the evaluation of the signals with respect to another type of dish, wherein one of the evaluation modules is embodied to detect plasticware based on the signals of at least one sensor, wherein a further one of the evaluation modules is embodied to detect metalware based on the signals of at least one sensor, and wherein yet another one of the evaluation modules is embodied to detect glassware based on the signals of at least one further sensor..
A method for conducting a call, performed by a server, the method comprises: obtaining at least three paths of voice data each transmitted by one of at least three first terminals, the at least three paths of voice data each carrying a piece of indication information, the piece of indication information comprising at least a piece of voice activity detection, VAD, information, the piece of VAD information indicating whether the corresponding path of voice data comprises a voice segment; selecting at least two paths of target voice data that comprise voice segments from the at least three paths of voice data according to the pieces of VAD information of the at least three paths of voice data as obtained, a number of paths of the at least two paths of target voice data being less than a number of paths of the at least three paths of voice data; and transmitting the at least two paths of target voice data to a second terminal, the second terminal being configured to decode the at least two paths of target voice data, mix decoded at least two paths of target voice data, and play mixed voice data, wherein the second terminal is any terminal in a call group, and the at least three first terminals are terminals in the call group that are different from the second terminal. obtaining at least three paths of voice data each transmitted by one of at least three first terminals, the at least three paths of voice data each carrying a piece of indication information, the piece of indication information comprising at least a piece of voice activity detection, VAD, information, the piece of VAD information indicating whether the corresponding path of voice data comprises a voice segment; selecting at least two paths of target voice data that comprise voice segments from the at least three paths of voice data according to the pieces of VAD information of the at least three paths of voice data as obtained, a number of paths of the at least two paths of target voice data being less than a number of paths of the at least three paths of voice data; and transmitting the at least two paths of target voice data to a second terminal, the second terminal being configured to decode the at least two paths of target voice data, mix decoded at least two paths of target voice data, and play mixed voice data, wherein the second terminal is any terminal in a call group, and the at least three first terminals are terminals in the call group that are different from the second terminal.
A method for the manipulation of particles (BEAD) in a conductive solution by means of a field of force wherein said field of force constitutes points of stable equilibrium (CAGE) for said particles (BEAD), said field of force being generated by means of an array of electrodes set at a distance from one another or pitch, comprising the steps of: i. applying a first set of signals on a first sub-set of electrodes and on a second sub-set of electrodes for providing static cages (CAGE1) located respectively in a first spatial position and a second spatial position; and ii. applying said first set of signals on said first sub-set to maintain said static cages (CAGE1) on said first spatial location and applying a second set of signals on said second sub-set so that dynamic cages (CAGE2) generated by said second sub-set are provided, such that said second spatial location of each point of stable equilibrium is displaced in a third spatial location at a distance from said second location at least equal to said pitch such that each particle trapped in each static cage (CAGE1) will remain in a neighbourhood of said first location while each particle trapped in each dynamic cage (CAGE2) will be attracted towards said third location. i. applying a first set of signals on a first sub-set of electrodes and on a second sub-set of electrodes for providing static cages (CAGE1) located respectively in a first spatial position and a second spatial position; and ii. applying said first set of signals on said first sub-set to maintain said static cages (CAGE1) on said first spatial location and applying a second set of signals on said second sub-set so that dynamic cages (CAGE2) generated by said second sub-set are provided, such that said second spatial location of each point of stable equilibrium is displaced in a third spatial location at a distance from said second location at least equal to said pitch such that each particle trapped in each static cage (CAGE1) will remain in a neighbourhood of said first location while each particle trapped in each dynamic cage (CAGE2) will be attracted towards said third location.
Use of an ethylene oxide-propylene oxide-ethylene oxide (EO/PO/EO) triblock copolymer, wherein the copolymer comprises a first EO block, a second EO block and PO block and wherein the first EO block and the second EO block are linked to the PO block, to improve the strength of a water-soluble unit dose article, preferably minimised film swelling of a water-soluble unit dose article, wherein the unit dose article comprises a water-soluble film and a liquid laundry detergent composition wherein the liquid laundry detergent composition comprises the ethylene oxide-propylene oxide-ethylene oxide (EO/PO/EO) triblock copolymer.
Battery cell spacer plates (1, 2) combined to form a stack, a spacer plate comprising a plurality of profile moulded parts (3, 4) which are aligned with the spacer plate in the longitudinal direction, a profile moulded part (3, 4) further being formed in particular as a rectangular moulded part by a plurality of profile portions (5, 6, 7) which extend, in relation to a cross section, perpendicularly with respect to a planar extension of the spacer plates (1, 2) and preferably at an angle to one another, and at least one bottom profile portion in addition extending in parallel with the plane in which the spacer plate (1, 2) extends, and moulded-part profile portions (5, 7) extending at an angle α to the plane, characterised in that, when altogether there are three or more spacer plates (1, 2) combined in the stack, which spacer plates rest on top of one another and are nested together, said stack always comprises two spacer plates (1, 2) which have different dimensions, at least in terms of the length of the bottom profile portions (8, 9), and in that, in cross section, a spacer plate of a first dimension is covered on either side by spacer plates of a second dimension.
A method of cooking food in a cooking appliance, the method comprising: (a) actuating an electrolyzer to produce hydrogen; (b) combusting the hydrogen to produce heat and utilizing the heat to cook food and simultaneously utilizing electricity to produce additional heat to cook the food; and further wherein electricity is utilized to actuate the elektrolyzer to produce hydrogen at the same time as electricity is utilized to provide electric heating. (a) actuating an electrolyzer to produce hydrogen; (b) combusting the hydrogen to produce heat and utilizing the heat to cook food and simultaneously utilizing electricity to produce additional heat to cook the food;