mhurhangee/patent-ind-claim-en huggingface dataset:
Wireless communication device for wireless communication in a wireless communication system which comprises a base station and a plurality of wireless communication devices arranged in clusters, wherein a unique cluster signature is assigned to each cluster and its wireless communication devices, wherein the wireless communication device is allocated to one of said clusters, wherein the wireless communication device comprises receiving means , storing means and transmission means wherein the receiving means is adapted to receive a unique cluster signature, and the storing means is adapted to store said received unique cluster signature, and the transmission means is adapted to transmit said unique cluster signature to another wireless communication device which is allocated to said one cluster as a head communication device when the wireless communication device switches to an active state, wherein the unique cluster signature is a compressed signature assigned to said one cluster from the base station and is different from Zadoff-Chu sequences used in an LTE random access procedure, wherein the activation state pattern of the communication devices is formulated as a block sparse signal, and active clusters and the number of active devices in each active cluster are detectable from a superposition of the unique cluster signatures of the active clusters and wherein the wireless communication device is adapted to access resources on the basis of resource allocation information, which is received from the head communication device in response to the transmission of said unique cluster signature to the head communication device .
Method for producing a strip-shaped security element for valuable documents, such as banknotes, identification cards and the like, wherein the security element consists of a polymeric carrier layer having a front side and a rear side, having the following steps: a. applying an embossing lacquer layer (2.1) onto the front side of the polymeric carrier layer , b. introducing an embossed structure into the embossing lacquer layer (2.1), c. applying an opaque metallic layer (3.1) onto the upper side of the embossed structure, wherein the metallic layer (3.1) at least partially covers the upper side of the embossed structure, d. applying a wash ink (4.1) onto the upper side of the metallic layer (3.1), wherein the wash ink (4.1) and the metallic layer (3.1) at least partially overlap and wherein the contour of the wash ink (4.1) forms a piece of information that is identifiable by a viewer, e. removing or transparentizing the metallic layer (3.1) from the upper side of the embossed structure using a laser beam (L), wherein the metallic layer (3.1) is not removed or transparentized at the locations (5.1) at which the metallic layer (3.1) overlaps with the wash ink (4.1), f. washing the wash ink (4.1) off the surface of the metallic layer (3.1) using a washing liquid. a. applying an embossing lacquer layer (2.1) onto the front side of the polymeric carrier layer , b. introducing an embossed structure into the embossing lacquer layer (2.1), c. applying an opaque metallic layer (3.1) onto the upper side of the embossed structure, wherein the metallic layer (3.1) at least partially covers the upper side of the embossed structure, d. applying a wash ink (4.1) onto the upper side of the metallic layer (3.1), wherein the wash ink (4.1) and the metallic layer (3.1) at least partially overlap and wherein the contour of the wash ink (4.1) forms a piece of information that is identifiable by a viewer, e. removing or transparentizing the metallic layer (3.1) from the upper side of the embossed structure using a laser beam (L), wherein the metallic layer (3.1) is not removed or transparentized at the locations (5.1) at which the metallic layer (3.1) overlaps with the wash ink (4.1), f. washing the wash ink (4.1) off the surface of the metallic layer (3.1) using a washing liquid.
An ABO 3 material having a formula A(M,M')O 3 wherein A is Y, or mixtures of Y with La, Sc, Gd, Tb, Dy, Ho, Er, Tm, Yb or Lu; wherein M = In, or mixtures of In with Al, Ga, Cr, Fe, Ni, B or Mn; wherein M' is a mixture of M A and M B cations; wherein M A = Co, or mixtures of Co with Zn, Mg, Ca, Sr, Ba, Cu or Ni; wherein M B = Ti, Zr or Sn, or mixtures of Ti, Zr or Sn with Si, V, Sb, Nb, Mo, W, Ta or Bi; wherein cations are present in proportions close to those for making an electrically neutral hexagonal oxide. wherein A is Y, or mixtures of Y with La, Sc, Gd, Tb, Dy, Ho, Er, Tm, Yb or Lu; wherein M = In, or mixtures of In with Al, Ga, Cr, Fe, Ni, B or Mn; wherein M' is a mixture of M A and M B cations; wherein M A = Co, or mixtures of Co with Zn, Mg, Ca, Sr, Ba, Cu or Ni; wherein M B = Ti, Zr or Sn, or mixtures of Ti, Zr or Sn with Si, V, Sb, Nb, Mo, W, Ta or Bi; wherein cations are present in proportions close to those for making an electrically neutral hexagonal oxide.
A method for treating a surface of a microporous membrane, the membrane comprising a polyolefinic polymeric matrix; finely divided particulate, substantially water-insoluble inorganic filler distributed throughout the matrix; and a network of interconnecting pores communicating throughout the microporous membrane, wherein the inorganic filler comprises silica. the method comprising in sequence: contacting at least one surface of the membrane with a treatment composition comprising a silane-functional polyamine compound having at least one alkoxy silane group, the silane-functional polyamine compound being in intimate contact with the filler present in the matrix; and subjecting the membrane of to conditions sufficient to effect a condensation reaction between the inorganic filler and the silane-functional polyamine compound. contacting at least one surface of the membrane with a treatment composition comprising a silane-functional polyamine compound having at least one alkoxy silane group, the silane-functional polyamine compound being in intimate contact with the filler present in the matrix; and subjecting the membrane of to conditions sufficient to effect a condensation reaction between the inorganic filler and the silane-functional polyamine compound.
A compound of formula: for use in the treatment of prostate carcinoma; mammary carcinoma; pancreatic carcinoma; lung carcinoma; gastrointestinal tract carcinoma, kidney cancer; thyroid carcinoma; uterine carcinoma; or adrenal carcinoma; and wherein the prostate carcinoma is resistant to anti androgen targeted therapy.
Apparatus for the production of foods, in particular, a stuffing machine for the production of sausages with a load circuit that generates a leakage current and with an EMC filter , a frequency converter , a motor cable and a motor , comprising a leakage current compensator with a device for detecting said leakage current and with a device for generating a compensation current that is directed opposite to said leakage current and is superimposed with said leakage current, such that said leakage current is reduced, is in particular substantially eliminated, wherein either said leakage current compensator is installed in a device upstream of said apparatus, the power supply of said leakage current compensators is effected via the power supply of said apparatus and said apparatus comprises a delay device which is configured such that said compensation current is superimposed in a time-delayed manner, in particular only when all phases of said plug have contacted when said apparatus is plugged in or that said leakage current compensator is integrated into said apparatus and is supplied via a separate auxiliary power supply and that said apparatus can be unplugged and is, in particular, movable . an EMC filter , a frequency converter , a motor cable and a motor , comprising a leakage current compensator with a device for detecting said leakage current and with a device for generating a compensation current that is directed opposite to said leakage current and is superimposed with said leakage current, such that said leakage current is reduced, is in particular substantially eliminated, wherein either said leakage current compensator is installed in a device upstream of said apparatus, the power supply of said leakage current compensators is effected via the power supply of said apparatus and said apparatus comprises a delay device which is configured such that said compensation current is superimposed in a time-delayed manner, in particular only when all phases of said plug have contacted when said apparatus is plugged in or that said leakage current compensator is integrated into said apparatus and is supplied via a separate auxiliary power supply and that said apparatus can be unplugged and is, in particular, movable .
A heating device comprising: a base member ; a gas burner mounted in or on the base member ; an upper housing located above the base member ; a tabletop mounted above the upper housing ; a hollow heat shield having a proximal end located on or near the base member , and a distal end located within the upper housing , and at least one support member extending between the base member and the upper housing or tabletop ; wherein the distal end of the heat shield extends beyond a proximal, lowermost end of the upper housing , defining a region of vertical overlap between the heat shield and the upper housing ; characterized in that the heat shield has a tapering profile with a cross sectional area that decreases between a proximal end located at the base member and a distal end adjacent to the upper housing . a base member ; a gas burner mounted in or on the base member ; an upper housing located above the base member ; a tabletop mounted above the upper housing ; a hollow heat shield having a proximal end located on or near the base member , and a distal end located within the upper housing , and at least one support member extending between the base member and the upper housing or tabletop ; wherein the distal end of the heat shield extends beyond a proximal, lowermost end of the upper housing , defining a region of vertical overlap between the heat shield and the upper housing ; characterized in that the heat shield has a tapering profile with a cross sectional area that decreases between a proximal end located at the base member and a distal end adjacent to the upper housing .
A duct section for an air distribution system, the duct section including an elongate frame having two opposed flange members each having an opening forming an air passage therein, by which flanges a plurality of the duct sections are able to be joined together to form an air passage of desired length, wherein, each duct section is lined with a thermal insulating material to provide a thermally insulating lining to the air passage , the lining being at least flush with the end faces of the flanges so that when adjacent duct sections are secured together, the thermal insulation lining of adjacent duct sections is arranged to provide a continuous insulating lining of the air passage characterised in that the thermal insulation lining projects from the end of the duct section to ensure that an air gap is not formed between adjacent duct sections when they are secured together and in that when an air gap is formed between the inner surface of the duct sections and the insulating lining , the air gap at the ends of a duct section is closed by mastic adhesive .
A method for operating a robotic vehicle , comprising: processing, by a processor of the robotic vehicle , sensor data from one or more sensors to detect an object in a vicinity of the robotic vehicle; determining , by the processor based on the sensor data, a classification of the object in the vicinity of the robotic vehicle, wherein the classification of the object comprises whether the object is an animate object or an inanimate object; adjusting , by the processor, a proximity threshold in a collision avoidance system based on the classification of the object in the vicinity of the robotic vehicle , wherein adjusting the proximity threshold comprises one or both of increasing the proximity threshold in response to the classification of the object being animate or decreasing the proximity threshold in response to the classification of the object being inanimate; and controlling , by the processor, the robotic vehicle using the adjusted proximity threshold for collision avoidance. processing, by a processor of the robotic vehicle , sensor data from one or more sensors to detect an object in a vicinity of the robotic vehicle; determining , by the processor based on the sensor data, a classification of the object in the vicinity of the robotic vehicle, wherein the classification of the object comprises whether the object is an animate object or an inanimate object; adjusting , by the processor, a proximity threshold in a collision avoidance system based on the classification of the object in the vicinity of the robotic vehicle , wherein adjusting the proximity threshold comprises one or both of increasing the proximity threshold in response to the classification of the object being animate or decreasing the proximity threshold in response to the classification of the object being inanimate; and controlling , by the processor, the robotic vehicle using the adjusted proximity threshold for collision avoidance.
An apparatus comprising: a fabric layer; a cord of conductive thread overlying the fabric layer; an electrode; and a connector electrically interconnecting the cord of conductive thread with the electrode; wherein the connector has a passage in which the cord of conductive thread reaches through the connector. a fabric layer; a cord of conductive thread overlying the fabric layer; an electrode; and a connector electrically interconnecting the cord of conductive thread with the electrode; wherein the connector has a passage in which the cord of conductive thread reaches through the connector.
System for the supraregional operation of a vehicle, having: - at least a control device ; - wherein a first vehicle bus is able to be connected to the control device , wherein a defined number of first control apparatuses (20a...20n) is able to be connected to the first vehicle bus ; and - wherein a second vehicle bus is able to be connected to the control device , wherein a defined number of second control apparatuses (40a...40n) is able to be connected to the second vehicle bus ; - wherein the control device is designed to provide a defined minimum functionality during a moving crossing of the vehicle from a defined first region to a defined second region by maintaining operation of the first control apparatuses and of the first vehicle bus; - wherein the control device is designed to change a functionality for the second control apparatuses (40a...40n) during the moving crossing from the defined first region to the defined second region; and - wherein the control device is designed to control coordination of the change of the functionality of the second control apparatuses. - at least a control device ; - wherein a first vehicle bus is able to be connected to the control device , wherein a defined number of first control apparatuses (20a...20n) is able to be connected to the first vehicle bus ; and - wherein a second vehicle bus is able to be connected to the control device , wherein a defined number of second control apparatuses (40a...40n) is able to be connected to the second vehicle bus ; - wherein the control device is designed to provide a defined minimum functionality during a moving crossing of the vehicle from a defined first region to a defined second region by maintaining operation of the first control apparatuses and of the first vehicle bus; - wherein the control device is designed to change a functionality for the second control apparatuses (40a...40n) during the moving crossing from the defined first region to the defined second region; and - wherein the control device is designed to control coordination of the change of the functionality of the second control apparatuses.
An outer rotor motor comprising: a frame including a coupling portion extending in an axial direction and a flange portion extending in a radial direction in a rear region of the coupling portion ; a stator disposed on a radially outer surface of the coupling portion ; a coil disposed on the stator ; a rotating shaft rotatably bearing-coupled to a radially central region of the coupling portion ; a cylindrical cover coupled to the rotating shaft in a forward region of the coupling portion and surrounding the stator ; and a magnet disposed on the cover , coupled to the inside of a side surface of the cover , and facing the stator , wherein the cover includes a fan bracket and a plurality of blades , both the fan bracket and the plurality of blades projecting in a radial direction from a radially outer surface of the cover , and the plurality of blades extending in the axial direction between the fan bracket and the flange portion in order to generate a flow of fluid between the fan bracket and the flange portion for improving the heat dissipation performance of the cover and inner parts of the cover . a frame including a coupling portion extending in an axial direction and a flange portion extending in a radial direction in a rear region of the coupling portion ; a stator disposed on a radially outer surface of the coupling portion ; a coil disposed on the stator ; a rotating shaft rotatably bearing-coupled to a radially central region of the coupling portion ; a cylindrical cover coupled to the rotating shaft in a forward region of the coupling portion and surrounding the stator ; and a magnet disposed on the cover , coupled to the inside of a side surface of the cover , and facing the stator , wherein the cover includes a fan bracket and a plurality of blades , both the fan bracket and the plurality of blades projecting in a radial direction from a radially outer surface of the cover , and the plurality of blades extending in the axial direction between the fan bracket and the flange portion in order to generate a flow of fluid between the fan bracket and the flange portion for improving the heat dissipation performance of the cover and inner parts of the cover .
A method for producing a tool for machining in which a coating film of a plurality of layers is formed on a surface of a base material by physical vapor deposition, the method comprising: a first layer formation step of forming a first layer containing a nitride or carbide of titanium on the surface of the base material ; a first barrier layer formation step of forming a barrier layer that covers a surface of the first layer ; a second layer formation step of forming a second layer containing aluminum oxide on a surface of the barrier layer ; and a second barrier layer formation step of forming the barrier layer that covers a surface of the second layer after the second layer formation step, wherein a plurality of cycles each including the first layer formation step, the first barrier layer formation step, the second layer formation step and the second barrier layer formation step are continuously performed, to form a multilayer coating film in which the first layer , the second layer and the barrier layer are sequentially laid on each other so that the barrier layer is formed before and after the formation of the second layer , and thereby preventing generation of titanium oxide at an interface with the second layer containing alumina on upper and lower surface sides of the first layer containing Ti. a first layer formation step of forming a first layer containing a nitride or carbide of titanium on the surface of the base material ; a first barrier layer formation step of forming a barrier layer that covers a surface of the first layer ; a second layer formation step of forming a second layer containing aluminum oxide on a surface of the barrier layer ; and a second barrier layer formation step of forming the barrier layer that covers a surface of the second layer after the second layer formation step, wherein a plurality of cycles each including the first layer formation step, the first barrier layer formation step, the second layer formation step and the second barrier layer formation step are continuously performed, to form a multilayer coating film in which the first layer , the second layer and the barrier layer are sequentially laid on each other so that the barrier layer is formed before and after the formation of the second layer , and thereby preventing generation of titanium oxide at an interface with the second layer containing alumina on upper and lower surface sides of the first layer containing Ti.
Method of supplying power to induction cooking zones of an induction cooking hob with a plurality of induction heating elements and with a plurality of power converters , each of the power converters feeding an induction heating element , the method comprising the steps of driving all the induction heating elements among those requiring non zero power level by the user, according to a predetermined input from the user, in order to keep a predetermined delivered power to the induction heating elements through a predetermined and repetitive driving sequence, characterized in that the method further comprises the step of actuating the power converters in order to acquire power curves of the heating elements , including the acquisition of a power curve of two induction heating elements sharing a same cooking vessel, by actuating the two induction heating elements sharing a same cooking vessel at the same time.
A method for communicating data symbols in a network, comprising: transmitting, by a transmitter , data symbols using modulation of a block code for non-coherent transmission via a channel to a receiver ; and modeling the channel using soft-in soft-out space-time-frequency basis expansion to represent inter-symbol interference, ISI, due to multi-path delays and inter-carrier interference, ICI, due to time-varying fading; and approximating the channel using a multi-dimensional basis expansion model, BEM, with dominant Karhunen-Loeve transform, KLT, basis vectors, wherein a Legendre polynomial basis is used over a time domain, and a Fourier basis is used over a frequency domain; and detecting an output of the channel as a received signal, wherein the detecting uses a generalized likelihood ratio test, GLRT, with said soft-in soft-out space-time-frequency basis expansion to reproduce the data symbols, wherein said BEM with said dominant KLT basis vectors is used. transmitting, by a transmitter , data symbols using modulation of a block code for non-coherent transmission via a channel to a receiver ; and modeling the channel using soft-in soft-out space-time-frequency basis expansion to represent inter-symbol interference, ISI, due to multi-path delays and inter-carrier interference, ICI, due to time-varying fading; and approximating the channel using a multi-dimensional basis expansion model, BEM, with dominant Karhunen-Loeve transform, KLT, basis vectors, wherein a Legendre polynomial basis is used over a time domain, and a Fourier basis is used over a frequency domain; and detecting an output of the channel as a received signal, wherein the detecting uses a generalized likelihood ratio test, GLRT, with said soft-in soft-out space-time-frequency basis expansion to reproduce the data symbols, wherein said BEM with said dominant KLT basis vectors is used.
A method of providing an Optical Variable Device (OVD) or a tactile security element on a security document by exposing the security document with a laser, the security document comprising an overlay provided on a core , wherein the overlay comprises a component capable of forming a gas upon laser exposure and characterised in that the OVD or the tactile security element has a metallic appearance.