mhurhangee/patent-ind-claim-en huggingface dataset:
A road vehicle comprising: two front wheels ; two rear wheels ; an engine , which transmits the motion to drive wheels ; and a cooling system , which is connected to the engine and comprises: a cooling circuit where a cooling liquid flows; and at least two radiators , which are connected to the cooling circuit , are designed to transfer heat from the cooling liquid to the external air and each have the shape of a parallelepiped; wherein the two radiators are contiguous to one another, so that an end of a radiator is close to an end of the other radiator ; and wherein the two radiators face one another and are inclined so as to form, between them, an acute angle and so as to create, together, a "V"-shaped structure ; the road vehicle is characterized in that the cooling system comprises: two first radiators , which make up, together, a first "V"-shaped structure , which is arranged on a right side of the road vehicle ; and two second radiators , which make up, together, a second "V"-shaped structure , which is arranged on a left side of the road vehicle . two front wheels ; two rear wheels ; an engine , which transmits the motion to drive wheels ; and a cooling system , which is connected to the engine and comprises: a cooling circuit where a cooling liquid flows; and at least two radiators , which are connected to the cooling circuit , are designed to transfer heat from the cooling liquid to the external air and each have the shape of a parallelepiped; wherein the two radiators are contiguous to one another, so that an end of a radiator is close to an end of the other radiator ; and wherein the two radiators face one another and are inclined so as to form, between them, an acute angle and so as to create, together, a "V"-shaped structure ; the road vehicle is characterized in that the cooling system comprises: two first radiators , which make up, together, a first "V"-shaped structure , which is arranged on a right side of the road vehicle ; and two second radiators , which make up, together, a second "V"-shaped structure , which is arranged on a left side of the road vehicle . two first radiators , which make up, together, a first "V"-shaped structure , which is arranged on a right side of the road vehicle ; and two second radiators , which make up, together, a second "V"-shaped structure , which is arranged on a left side of the road vehicle .
A method for producing a biologically active agent for the crop protection against insect pests, comprising the steps of - providing microcontainers, wherein said microcontainers are produced from microcapsules having a polymeric material shell and an organic solvent core, followed by heating said microcapsules up to 300°C to cause a perforation of the microcapsule shell and formation of holes therein as a result of action of solvent vapour pressure, wherein a size of said microcapsule shell holes is adjustable my means of selecting a proportion of polymeric material components for said shell and varying said solvent vapour pressure; - introducing a biologically active suspension comprising fungal spores and a liquid phase into said microcontainers, - decanting the liquid phase, and - drying said microcontainers containing fungal spores. - providing microcontainers, wherein said microcontainers are produced from microcapsules having a polymeric material shell and an organic solvent core, followed by heating said microcapsules up to 300°C to cause a perforation of the microcapsule shell and formation of holes therein as a result of action of solvent vapour pressure, wherein a size of said microcapsule shell holes is adjustable my means of selecting a proportion of polymeric material components for said shell and varying said solvent vapour pressure; - introducing a biologically active suspension comprising fungal spores and a liquid phase into said microcontainers, - decanting the liquid phase, and - drying said microcontainers containing fungal spores.
A method for forming an interconnection structure for a semiconductor device, comprising: forming a first conductive layer above a first conductive line and a second conductive line , wherein the first and second conductive lines are arranged with a respective end portion abutting a spacer separating the first and second conductive lines from each other, wherein the first conductive line is covered by a first mask layer separating the first line from the conductive layer, and wherein the second conductive line is partly covered by a second mask layer , allowing a contacting portion of the first conductive layer to contact the second conductive line; etching the first conductive layer to form a set of third conductive lines , wherein at least one of the third conductive lines comprises said contacting portion forming a first via connection ; forming spacers on side walls of the set of third conductive lines; forming, between two neighbouring spacers, a via hole extending through the first mask to the underlying first conductive line; and depositing a second conductive layer filling the via hole to form a second via connection and forming a set of fourth conductive lines extending between said spacers. forming a first conductive layer above a first conductive line and a second conductive line , wherein the first and second conductive lines are arranged with a respective end portion abutting a spacer separating the first and second conductive lines from each other, wherein the first conductive line is covered by a first mask layer separating the first line from the conductive layer, and wherein the second conductive line is partly covered by a second mask layer , allowing a contacting portion of the first conductive layer to contact the second conductive line; etching the first conductive layer to form a set of third conductive lines , wherein at least one of the third conductive lines comprises said contacting portion forming a first via connection ; forming spacers on side walls of the set of third conductive lines; forming, between two neighbouring spacers, a via hole extending through the first mask to the underlying first conductive line; and depositing a second conductive layer filling the via hole to form a second via connection and forming a set of fourth conductive lines extending between said spacers.
Mixing valve, comprising a valve housing and a switchover valve part and a proportional valve part , wherein a multiple-part valve body is provided for the switchover valve part and the proportional valve part , and the valve body has a valve body part facing the switchover valve part , and a valve body part facing the proportional valve part , and the valve body by an external force is movable counter to the restoring force of at least one spring , characterized in that the valve body part facing the switchover valve part on its one end has at least one cleaning appendage which is configured and/or disposed in such a manner that said cleaning appendage can contact a face, lying opposite said cleaning appendage , of the valve body part facing the proportional valve part .
A combustion and heat exchange assembly for a solid oxide fuel cell (SOFC) system, comprising: a casing and a partition arranged inside the casing , wherein the partition divides the interior of the casing into a combustion chamber and a heat exchange chamber; a combustion unit arranged inside the combustion chamber, comprising: an igniter ; a combustion nozzle ; a fuel gas supply pipe; and an air director; wherein: the combustion nozzle comprises a central cavity and a plurality of flame channels in communication with the central cavity; a plurality of through holes for projecting flames are arranged on a side of the flame channels adjacent to the partition ; and the air director is used for directing air into the central cavity; and a heat exchange unit arranged inside the heat exchange chamber, wherein the heat exchange unit comprises a cold channel and a hot channel, which are independent of each other, and a gas flow port in communication with the hot channel is arranged on the partition . a casing and a partition arranged inside the casing , wherein the partition divides the interior of the casing into a combustion chamber and a heat exchange chamber; a combustion unit arranged inside the combustion chamber, comprising: an igniter ; a combustion nozzle ; a fuel gas supply pipe; and an air director; an igniter ; a combustion nozzle ; a fuel gas supply pipe; and an air director; wherein: the combustion nozzle comprises a central cavity and a plurality of flame channels in communication with the central cavity; a plurality of through holes for projecting flames are arranged on a side of the flame channels adjacent to the partition ; and the air director is used for directing air into the central cavity; and the combustion nozzle comprises a central cavity and a plurality of flame channels in communication with the central cavity; a plurality of through holes for projecting flames are arranged on a side of the flame channels adjacent to the partition ; and the air director is used for directing air into the central cavity; and a heat exchange unit arranged inside the heat exchange chamber, wherein the heat exchange unit comprises a cold channel and a hot channel, which are independent of each other, and a gas flow port in communication with the hot channel is arranged on the partition .
An L-shaped supporting body configured and adapted for accommodating a fish and for conveying said fish tail first, through a cutting unit having a circular blade pair of a fish processing apparatus, which has a continuously revolving conveyor, wherein the supporting body has a main body for fastening said supporting body to the conveyor and a bearing web , which protrudes beyond a side wall of the main body and which has a supporting edge arranged at the top for accommodating the backbone of the fish to be accommodated, characterised in that the bearing web has a groove arranged on the underside, which groove is designed as a countersupport for the circular blade pair .
An encoder for forward error correction channel encoding, the encoder configured to: - determine a protomatrix of a low-density parity check, LDPC, code for a hybrid automatic repeat request, HARQ, scheme, the protomatrix being dividable into a core protomatrix formed by intersecting first rows and first columns , and an extension of the core protomatrix formed by second rows and second columns , wherein a number of the second columns is two times a number of the second rows; - lift the protomatrix to determine a parity check matrix of a quasi-cyclic low density parity check, QC-LDPC, code; - replace each row of the parity check matrix of the QC-LDPC code, said each row corresponding to a degree- i check node of a Tanner graph of the QC-LDPC code and said degree- i check node representing a single parity check code of length i with the two rows of a 2× i check matrix of a component code, H component_code , to obtain a parity check matrix of a generalized QC-LDPC code, H GLDPC , wherein each check node of the QC-LDPC code is replaced by the component code to derive the generalized QC-LDPC code and the 2× i check matrix of the component code, H component_code , is a 2× i matrix representing a Cordaro Wagner code of length i; - provide a codeword having data bits and parity bits, based on the data bits and rows and columns of the parity check matrix of the generalized QC-LDPC code corresponding to the core protomatrix; and - provide additional parity bits, based on the codeword and rows and columns of the parity check matrix of the generalized QC-LDPC code corresponding to the extension of the core protomatrix. - determine a protomatrix of a low-density parity check, LDPC, code for a hybrid automatic repeat request, HARQ, scheme, the protomatrix being dividable into a core protomatrix formed by intersecting first rows and first columns , and an extension of the core protomatrix formed by second rows and second columns , wherein a number of the second columns is two times a number of the second rows; - lift the protomatrix to determine a parity check matrix of a quasi-cyclic low density parity check, QC-LDPC, code; - replace each row of the parity check matrix of the QC-LDPC code, said each row corresponding to a degree- i check node of a Tanner graph of the QC-LDPC code and said degree- i check node representing a single parity check code of length i with the two rows of a 2× i check matrix of a component code, H component_code , to obtain a parity check matrix of a generalized QC-LDPC code, H GLDPC , wherein each check node of the QC-LDPC code is replaced by the component code to derive the generalized QC-LDPC code and the 2× i check matrix of the component code, H component_code , is a 2× i matrix representing a Cordaro Wagner code of length i; - provide a codeword having data bits and parity bits, based on the data bits and rows and columns of the parity check matrix of the generalized QC-LDPC code corresponding to the core protomatrix; and - provide additional parity bits, based on the codeword and rows and columns of the parity check matrix of the generalized QC-LDPC code corresponding to the extension of the core protomatrix.
A rapid-entry shoe comprising: a sole portion and an upper, the upper comprising a rear portion, a side portion, a forward portion, and a transition portion between the forward portion and the side portion; an elastic element disposed at the side portion, the elastic element extending to and forming a portion of a topline of the rapid-entry shoe; a stabilizer disposed at the rear portion and extending from within the sole portion, the stabilizer comprising a base portion at least partially within the sole portion and an elevated portion ; wherein expansion or deformation of the elastic element enlarges a foot opening of the rapid-entry shoe for insertion of a foot into the foot opening, and wherein contraction of the elastic element reduces the foot opening of the rapid-entry shoe; wherein the elastic element is configured to enable the forward portion of the upper to flex and/or pivot forward relative to the sole portion during insertion of the foot into the foot opening; and wherein the stabilizer is comprised of a rigid material, and is configured to prevent the rear portion of the upper from collapsing downward relative to the sole portion when the foot is inserted into the foot opening; characterized in that the stabilizer extends to a top collar or the topline of the rapid-entry shoe. a sole portion and an upper, the upper comprising a rear portion, a side portion, a forward portion, and a transition portion between the forward portion and the side portion; an elastic element disposed at the side portion, the elastic element extending to and forming a portion of a topline of the rapid-entry shoe; a stabilizer disposed at the rear portion and extending from within the sole portion, the stabilizer comprising a base portion at least partially within the sole portion and an elevated portion ; wherein expansion or deformation of the elastic element enlarges a foot opening of the rapid-entry shoe for insertion of a foot into the foot opening, and wherein contraction of the elastic element reduces the foot opening of the rapid-entry shoe; wherein the elastic element is configured to enable the forward portion of the upper to flex and/or pivot forward relative to the sole portion during insertion of the foot into the foot opening; and wherein the stabilizer is comprised of a rigid material, and is configured to prevent the rear portion of the upper from collapsing downward relative to the sole portion when the foot is inserted into the foot opening; characterized in that the stabilizer extends to a top collar or the topline of the rapid-entry shoe.
A suspension for a receiver in a hearing device, the suspension comprising: - a receiver holding part forming a receiver compartment, and - a damping structure with a body and a receiver base , the body comprising a first body part , the damping structure having an inner surface forming a sound duct in the damping structure , the sound duct extending through the first body part , the damping structure having a first opening at a first sound duct end , the first opening configured for connecting an output port of the receiver to the sound duct , the damping structure having a second opening at a second sound duct end , the sound duct providing a sound path for conveying sound energy from the receiver through the damping structure to the second opening , the first body part extending from the receiver base , wherein the damping structure comprises at least a first damping element extending separate from and in parallel to the first body part , wherein the sound duct has a circular cross section having a substantially constant diameter along its length; characterised in that the first damping element extends from the receiver base to the body forming a gap between the first damping element and the first body part ; wherein the body comprises a second body part positioned between the second sound duct end and the first body part, the sound duct extending through the second body part and the second body part having a corrugated second outer surface; wherein the first damping element, in a first cross section, perpendicular to a first longitudinal axis covers an area of less than 10% of a receiver base area. - a receiver holding part forming a receiver compartment, and - a damping structure with a body and a receiver base , the body comprising a first body part , the damping structure having an inner surface forming a sound duct in the damping structure , the sound duct extending through the first body part , the damping structure having a first opening at a first sound duct end , the first opening configured for connecting an output port of the receiver to the sound duct , the damping structure having a second opening at a second sound duct end , the sound duct providing a sound path for conveying sound energy from the receiver through the damping structure to the second opening , the first body part extending from the receiver base , wherein the damping structure comprises at least a first damping element extending separate from and in parallel to the first body part , wherein the sound duct has a circular cross section having a substantially constant diameter along its length;
Radial tyre for a motor vehicle, comprising: - a crown surmounted by a tread provided with at least one radially outer elastomer layer intended to come into contact with the road when the tyre is rolling; - two inextensible beads , two sidewalls connecting the beads to the tread , a carcass reinforcement passing into the two sidewalls and anchored in the beads ; - the crown being reinforced by a crown reinforcement or belt placed circumferentially between the carcass reinforcement and the tread ; - a radially inner elastomer layer known as a "sublayer", having a formulation different from the formulation of the radially outer elastomer layer , this sublayer being placed between the radially outer layer and the belt , characterized in that said sublayer comprises a rubber composition comprising at least one diene elastomer, a reinforcing filler and more than 10 phr of a hydrogenated thermoplastic styrene copolymer (referred to as "TPS elastomer"). - a crown surmounted by a tread provided with at least one radially outer elastomer layer intended to come into contact with the road when the tyre is rolling; - two inextensible beads , two sidewalls connecting the beads to the tread , a carcass reinforcement passing into the two sidewalls and anchored in the beads ; - the crown being reinforced by a crown reinforcement or belt placed circumferentially between the carcass reinforcement and the tread ; - a radially inner elastomer layer known as a "sublayer", having a formulation different from the formulation of the radially outer elastomer layer , this sublayer being placed between the radially outer layer and the belt , characterized in that said sublayer comprises a rubber composition comprising at least one diene elastomer, a reinforcing filler and more than 10 phr of a hydrogenated thermoplastic styrene copolymer (referred to as "TPS elastomer").
A power generation system , comprising: a gas turbine engine the gas turbine engine comprising a combustor for creating a flow of combustion gases ; a heat recovery steam generator for recovering heat from the hot combustion gases exiting the gas turbine engine so as to create a flow of steam , a steam turbine , the steam turbine comprising a steam turbine shell ; and a steam turbine preheating system ; wherein the steam turbine preheating system includes one or more extractions of the hot combustion gases ; characterised in that the extractions are in communication with the shell of the steam turbine so that the steam turbine preheating system receives an extraction of the flow of combustion gases and delivers the extraction to the steam turbine to preheat the steam turbine via a filter system . a gas turbine engine the gas turbine engine comprising a combustor for creating a flow of combustion gases ; a heat recovery steam generator for recovering heat from the hot combustion gases exiting the gas turbine engine so as to create a flow of steam , a steam turbine , the steam turbine comprising a steam turbine shell ; and a steam turbine preheating system ; wherein the steam turbine preheating system includes one or more extractions of the hot combustion gases ; characterised in that the extractions are in communication with the shell of the steam turbine so that the steam turbine preheating system receives an extraction of the flow of combustion gases and delivers the extraction to the steam turbine to preheat the steam turbine via a filter system .
Procedure for obtaining SEBS and/or SPBS compounds, characterised by the following steps: - insertion of a paraffin or aromatic oil (or their mixture) into a thermostatic mixer at 55-60°C with an amount by weight between 70-90%; - the constant agitation of said paraffin or aromatic oil in said mixer; - insertion of the following into the mixer containing the above-mentioned copolymer oil: - SEBS and/or SPBS and/or their compounds with parts by weight between 10 and 30%; - stabilisers with parts by weight between 0.1 and 0.2%; - colorants as required; - mixing everything until the liquid phase disappears; - cooling of the mass obtained inside the mixer to a temperature between about 25° C and 40 °C and the concurrent agitation of the entire mass until it transforms into a powder state. - insertion of a paraffin or aromatic oil (or their mixture) into a thermostatic mixer at 55-60°C with an amount by weight between 70-90%; - the constant agitation of said paraffin or aromatic oil in said mixer; - insertion of the following into the mixer containing the above-mentioned copolymer oil: - SEBS and/or SPBS and/or their compounds with parts by weight between 10 and 30%; - stabilisers with parts by weight between 0.1 and 0.2%; - colorants as required; - mixing everything until the liquid phase disappears; - cooling of the mass obtained inside the mixer to a temperature between about 25° C and 40 °C and the concurrent agitation of the entire mass until it transforms into a powder state. - SEBS and/or SPBS and/or their compounds with parts by weight between 10 and 30%; - stabilisers with parts by weight between 0.1 and 0.2%; - colorants as required; - mixing everything until the liquid phase disappears; - cooling of the mass obtained inside the mixer to a temperature between about 25° C and 40 °C and the concurrent agitation of the entire mass until it transforms into a powder state.