mhurhangee/patent-ind-claim-en huggingface dataset:
A system, comprising one or more computing devices configured to: receive a first content request from a client device via a network, the first content request specifying a first uniform resource locator 'URL' and corresponding to a first content range, the first URL comprising a root including a URL key, the URL key including a range of bits identifying one or more interstitial periods of secondary content within a media presentation including primary content; determine that the first content request corresponds to a primary content fragment by determining that the first content range is not within a corresponding one of the one or more interstitial periods identified by the URL key; transmit the primary content fragment to the client device via the network, the primary content fragment originating from a first content source; receive a second content request from the client device via the network, the second content request specifying a second URL and corresponding to a second content range, the second URL comprising a root identical to the root of the first URL, including the URL key; determine that the second content request corresponds to a secondary content fragment by determining that the second content range is within a corresponding one of the one or more interstitial periods identified by the URL key; and transmit the secondary content fragment to the client device via the network, the secondary content fragment originating from a second content source that is different from the first content source. receive a first content request from a client device via a network, the first content request specifying a first uniform resource locator 'URL' and corresponding to a first content range, the first URL comprising a root including a URL key, the URL key including a range of bits identifying one or more interstitial periods of secondary content within a media presentation including primary content; determine that the first content request corresponds to a primary content fragment by determining that the first content range is not within a corresponding one of the one or more interstitial periods identified by the URL key; transmit the primary content fragment to the client device via the network, the primary content fragment originating from a first content source; receive a second content request from the client device via the network, the second content request specifying a second URL and corresponding to a second content range, the second URL comprising a root identical to the root of the first URL, including the URL key; determine that the second content request corresponds to a secondary content fragment by determining that the second content range is within a corresponding one of the one or more interstitial periods identified by the URL key; and transmit the secondary content fragment to the client device via the network, the secondary content fragment originating from a second content source that is different from the first content source.
A computer-implemented method, comprising: receiving seismic data acquired in a seismic survey; constructing a three-dimensional representation of the acquired seismic data using an iterative interpolation process wherein the iterative interpolation process comprises: determining a measurement function representing the acquired seismic data, the measurement function comprising basis functions; selecting a new basis function; applying a ghosting operator to the new basis function to generate a transformed basis function; and adding the transformed basis function to the existing measurement function to form a new measurement function; and based on at least one criterion, removing a noise from the three-dimensional representation of the acquired seismic data, characterized in that the noise comprises seismic interference signals, and that the method further comprises: at each iteration of the interpolation process, comparing a wavenumber of the basis function to be added to the measurement function to a wavenumber associated with the noise; and adding the basis function to the measurement function if the wavenumber of the basis function is not associated with the noise. receiving seismic data acquired in a seismic survey; constructing a three-dimensional representation of the acquired seismic data using an iterative interpolation process wherein the iterative interpolation process comprises: determining a measurement function representing the acquired seismic data, the measurement function comprising basis functions; selecting a new basis function; applying a ghosting operator to the new basis function to generate a transformed basis function; and adding the transformed basis function to the existing measurement function to form a new measurement function; and determining a measurement function representing the acquired seismic data, the measurement function comprising basis functions; selecting a new basis function; applying a ghosting operator to the new basis function to generate a transformed basis function; and adding the transformed basis function to the existing measurement function to form a new measurement function; and based on at least one criterion, removing a noise from the three-dimensional representation of the acquired seismic data, characterized in that the noise comprises seismic interference signals, and that the method further comprises: at each iteration of the interpolation process, comparing a wavenumber of the basis function to be added to the measurement function to a wavenumber associated with the noise; and adding the basis function to the measurement function if the wavenumber of the basis function is not associated with the noise. at each iteration of the interpolation process, comparing a wavenumber of the basis function to be added to the measurement function to a wavenumber associated with the noise; and adding the basis function to the measurement function if the wavenumber of the basis function is not associated with the noise.
A multi-chamber hollow profile with an outer wall , which comprises a plurality of fire protection material chambers , which are completely or partially filled with fire protection material , and at least one receiving hollow chamber , for use in fire protection structures, particularly in fire-resistant frames for fire protection elements, for example as an insert or sliding insert in a fire-resistant glazing frame , characterized in that the at least one receiving hollow chamber : • is arranged in the interior of the multi-chamber hollow profile , • is completely or predominantly surrounded by the plurality of fire protection material chambers ; • has at least one end face which is arranged in the area of the end faces of the multi-chamber hollow profile , so that the at least one receiving hollow chamber is accessible from outside the multi-chamber hollow profile ; and is separated from the plurality of fire protection material chambers completely or predominantly surrounding it by a wall which is at least largely impermeable to the fire protection material , and wherein the wall of the at least one receiving hollow chamber and the walls of the plurality of fire protection material chambers extend parallel to the main axis of the multi-chamber hollow profile and end faces of the at least one receiving hollow chamber extend substantially parallel to end faces of the plurality of fire protection material chambers . • is arranged in the interior of the multi-chamber hollow profile , • is completely or predominantly surrounded by the plurality of fire protection material chambers ; • has at least one end face which is arranged in the area of the end faces of the multi-chamber hollow profile , so that the at least one receiving hollow chamber is accessible from outside the multi-chamber hollow profile ; and is separated from the plurality of fire protection material chambers completely or predominantly surrounding it by a wall which is at least largely impermeable to the fire protection material , and wherein the wall of the at least one receiving hollow chamber and the walls of the plurality of fire protection material chambers extend parallel to the main axis of the multi-chamber hollow profile and end faces of the at least one receiving hollow chamber extend substantially parallel to end faces of the plurality of fire protection material chambers .
An operating device comprising: an operating unit that includes an operating section ; a supporting member that supports the operating unit ; a supporting mechanical section that is provided between the operating unit and the supporting member ; an operation detecting section configured to detect that the operating unit has been pressed rearward; and a response force applying mechanism that is configured to apply a response force to the operating unit , the response force being oriented in a second direction intersecting a first direction that is a front-rear direction, wherein in the supporting mechanical section a connecting shaft section is provided at one of the operating unit and the supporting member and a connecting receiving section is provided at the other of the operating unit and the supporting member , and the connecting shaft section is supported by the connecting receiving section so as to be movable in the first direction, a restoring member that is configured to cause the operating unit to be restored forward, and wherein the connecting receiving section includes a first elastic member that continues supporting the connecting shaft section from both sides thereof in the second direction while the connecting shaft section moves in the first direction; characterized in that , in the supporting mechanical section , a position of the connecting shaft section and a position of the connecting receiving section relative to each other are restricted in a third direction intersecting both the first direction and the second direction. an operating unit that includes an operating section ; a supporting member that supports the operating unit ; a supporting mechanical section that is provided between the operating unit and the supporting member ; an operation detecting section configured to detect that the operating unit has been pressed rearward; and a response force applying mechanism that is configured to apply a response force to the operating unit , the response force being oriented in a second direction intersecting a first direction that is a front-rear direction, wherein in the supporting mechanical section a connecting shaft section is provided at one of the operating unit and the supporting member and a connecting receiving section is provided at the other of the operating unit and the supporting member , and the connecting shaft section is supported by the connecting receiving section so as to be movable in the first direction, a restoring member that is configured to cause the operating unit to be restored forward, and wherein the connecting receiving section includes a first elastic member that continues supporting the connecting shaft section from both sides thereof in the second direction while the connecting shaft section moves in the first direction; characterized in that , in the supporting mechanical section , a position of the connecting shaft section and a position of the connecting receiving section relative to each other are restricted in a third direction intersecting both the first direction and the second direction.
A rail for a lift and slide element , in particular for a lift and slide door or a lift and slide window, which comprises a leaf and a roller arrangement , wherein the rail defines a track , on which the leaf is travelable by means of the roller arrangement , and comprises at least one lowering section which is adjustable, in particular by motor, between a flush position and a lowered position to be able to move the leaf between a raised travel position and a lowered fixing position when the leaf stands with a roller of the roller arrangement on the lowering section , characterized in that the rail has at least one drive apparatus , which comprises a lifting mechanism , for actively adjusting the lowering section . wherein the rail defines a track , on which the leaf is travelable by means of the roller arrangement , and comprises at least one lowering section which is adjustable, in particular by motor, between a flush position and a lowered position to be able to move the leaf between a raised travel position and a lowered fixing position when the leaf stands with a roller of the roller arrangement on the lowering section , characterized in that the rail has at least one drive apparatus , which comprises a lifting mechanism , for actively adjusting the lowering section .
An electric battery comprising: plural battery cells , each battery cell comprising at least one pouch cell, the pouch cell comprising a pouch cell container, which contains an electrochemical arrangement, each battery cell further comprising positive and negative terminals of sheet form extending from the electrochemical arrangement; and plural measurement arrangements , characterised in that each of the plural measurement arrangements is electrically coupled to each of two measurement locations, which are spaced apart from each other, both located on a same one of the positive and negative terminals of a respective one of the plural battery cells , each of the plural measurement arrangements being configured to measure potential difference between the two measurement locations whereby the terminal between the measurement locations is operative as a parasitic current sense resistance, wherein each of the plural measurement arrangements comprises an amplifier and a filter, the amplifier configured to measure the potential difference, and the filter configured to filter signals from the amplifier. plural battery cells , each battery cell comprising at least one pouch cell, the pouch cell comprising a pouch cell container, which contains an electrochemical arrangement, each battery cell further comprising positive and negative terminals of sheet form extending from the electrochemical arrangement; and plural measurement arrangements , characterised in that each of the plural measurement arrangements is electrically coupled to each of two measurement locations, which are spaced apart from each other, both located on a same one of the positive and negative terminals of a respective one of the plural battery cells , each of the plural measurement arrangements being configured to measure potential difference between the two measurement locations whereby the terminal between the measurement locations is operative as a parasitic current sense resistance, wherein each of the plural measurement arrangements comprises an amplifier and a filter, the amplifier configured to measure the potential difference, and the filter configured to filter signals from the amplifier.
Device for detecting radiation, comprising: - a silicon layer with a front side and a back side; - first (12-1) and second (12-2) read-out circuits formed on the front side of the silicon layer ; - a photodiode formed on the front side of the silicon layer and connected to the first read-out circuit (12-1); - an electrically insulating layer placed on the front side of the silicon layer so as to cover the first and second read-out circuits (12-1 and 12-2) and the photodiode ; - an infrared photodiode produced in a material optimized for infrared detection, and placed on the electrically insulating layer , the infrared photodiode and the photodiode being laterally offset; - an interconnect (15, 15-IR) that passes through the electrically insulating layer and that opens onto the surface of the electrically insulating layer , the interconnect (15, 15-IR) being configured to connect the second read-out circuit (12-2) and the infrared photodiode ; the detecting device being characterized in that a structure of interference filters of infrared radiation is placed on the electrically insulating layer so as to cover the photodiode without covering the infrared photodiode , the infrared photodiode and the structure of interference filters of infrared radiation being placed in one and the same plane. - a silicon layer with a front side and a back side; - first (12-1) and second (12-2) read-out circuits formed on the front side of the silicon layer ; - a photodiode formed on the front side of the silicon layer and connected to the first read-out circuit (12-1); - an electrically insulating layer placed on the front side of the silicon layer so as to cover the first and second read-out circuits (12-1 and 12-2) and the photodiode ; - an infrared photodiode produced in a material optimized for infrared detection, and placed on the electrically insulating layer , the infrared photodiode and the photodiode being laterally offset; - an interconnect (15, 15-IR) that passes through the electrically insulating layer and that opens onto the surface of the electrically insulating layer , the interconnect (15, 15-IR) being configured to connect the second read-out circuit (12-2) and the infrared photodiode ;
Electromagnetic induction device comprising a magnetic core having a limb and at least one winding wound around the limb , wherein the winding comprises: - an electrical conductor forming a plurality of radially overlapping layers (6', 6", ... 6 n ) around an axis (A); - an electrically insulating material positioned between the radially overlapping layers (6', 6", ... 6 n ) of the electrical conductor; - at least one magnetic material end-fill positioned at at least one axial end of the winding in electrical contact with the layers (6', 6", ... 6 n ) of the electrical conductor so as to be at the same electrical potential with the latter, wherein the magnetic material end-fill comprises at least one magnetic strip wound around said axis (A) so as to form a plurality of radially overlapping layers (14', 14", ... 14 n ), each layer of the magnetic strip being positioned in correspondence to and in electrical contact with a respective layer (6', 6", ... 6 n ) of the electrical conductor; characterized by at least one electrically insulating material end-fill positioned at said at least one end of the winding , such that the magnetic material end-fill is axially positioned between the electrically insulating material end-fill and the electrical conductor, wherein the electrically insulating material end-fill comprises a pressboard strip wound around said axis (A) so as to form a plurality of radially overlapping layers (16', 16", ... 16 n ), wherein each layer (16', 16", ... 16 n ) of the pressboard strip is radially positioned in correspondence to a respective layer (14', 14", ... 14 n ) of the at least one magnetic strip and to a respective layer (6', 6", ... 6 n ) of the electrical conductor, wherein the layers (14', 14", ... 14 n ) of the at least one magnetic strip are axially positioned between the layers (6', 6", ... 6 n ) of the electrical conductor and the layers (16', 16", ... 16 n ) of the pressboard strip . - an electrical conductor forming a plurality of radially overlapping layers (6', 6", ... 6 n ) around an axis (A); - an electrically insulating material positioned between the radially overlapping layers (6', 6", ... 6 n ) of the electrical conductor; - at least one magnetic material end-fill positioned at at least one axial end of the winding in electrical contact with the layers (6', 6", ... 6 n ) of the electrical conductor so as to be at the same electrical potential with the latter, wherein the magnetic material end-fill comprises at least one magnetic strip wound around said axis (A) so as to form a plurality of radially overlapping layers (14', 14", ... 14 n ), each layer of the magnetic strip being positioned in correspondence to and in electrical contact with a respective layer (6', 6", ... 6 n ) of the electrical conductor;
Multi nuclei RF antenna arrangement comprising a first antenna for transmitting RF excitation signals for exciting magnetic resonances and/or for receiving MR relaxation signals of/from a first species of nuclei having a first gyromagnetic ratio (γ LO ), and a second antenna for transmitting RF excitation signals for exciting magnetic resonances and/or for receiving MR relaxation signals of/from a second species of nuclei having a second gyromagnetic ratio (γ HI ), wherein the first gyromagnetic ratio (γ LO ) is lower than the second gyromagnetic ratio (γ HI ) and wherein the first antenna has a first number (n LO ) of antenna elements and the second antenna has a second number (n HI ) of antenna elements , which antenna elements are each resonant to the related Larmor frequency of the first and the second species of nuclei, respectively, wherein the antenna elements are provided each with own electronic RF/MR receive and/or transmit units thereby providing independently operating RF/MR receive and/or transmit channels, wherein the ratio between the second and the first number (n HI / n LO ) is approximately equal to or greater than the ratio between the second and the first gyromagnetic ratio (γ HI / γ LO ).
A spallation resistant metallic article comprising: a metallic substrate ; at least one ceramic thermal barrier coating comprising a zirconia base and at least one other element selected from the group consisting of La, Ce, Pr, Nd, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb, Lu, Sc, In, Y, Mo and C, rare earth oxides, scandium, and indium, wherein the element(s) are present from 1 to 50 mole percent of the M 2 O 3 oxide where M refers to the listed elements; and a thermally grown oxide (TGO) layer ; characterised in that said metallic article further comprises: a ceramic bond coat of thickness between 0.5 and 3.0 mils (13 and 76 μm) located between said metallic substrate and said at least one ceramic thermal barrier coating, wherein said ceramic bond coat is composed of yttria stabilized zirconia (YSZ); and in that said TGO layer is interposed between said metallic substrate and said ceramic bond coat. a metallic substrate ; at least one ceramic thermal barrier coating comprising a zirconia base and at least one other element selected from the group consisting of La, Ce, Pr, Nd, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb, Lu, Sc, In, Y, Mo and C, rare earth oxides, scandium, and indium, wherein the element(s) are present from 1 to 50 mole percent of the M 2 O 3 oxide where M refers to the listed elements; and a thermally grown oxide (TGO) layer ; characterised in that said metallic article further comprises: a ceramic bond coat of thickness between 0.5 and 3.0 mils (13 and 76 μm) located between said metallic substrate and said at least one ceramic thermal barrier coating, wherein said ceramic bond coat is composed of yttria stabilized zirconia (YSZ); and in that said TGO layer is interposed between said metallic substrate and said ceramic bond coat. a ceramic bond coat of thickness between 0.5 and 3.0 mils (13 and 76 μm) located between said metallic substrate and said at least one ceramic thermal barrier coating, wherein said ceramic bond coat is composed of yttria stabilized zirconia (YSZ); and in that said TGO layer is interposed between said metallic substrate and said ceramic bond coat.