mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing transparently sugar-coated chewing gum, having a heterogeneously structured chewing gum core and a transparent sugar-coated surface layer enveloping this core, comprising the following method steps: a) providing chewing gum core components, in particular at least one chewing gum base mass and at least one first carbohydrate, coloured carbohydrate particles with a particle diameter of 0.2 to 2 mm, and a transparent sugar-coating medium containing at least one second carbohydrate, b) mixing and kneading the chewing gum core components to obtain a chewing gum core mass, c) extruding the chewing gum core mass to obtain an extruded shaped chewing gum body, d) scattering the coloured carbohydrate particles on a surface of the extruded shaped chewing gum body, e) rolling the shaped chewing gum body scattered with coloured carbohydrate particles, f) cutting the rolled shaped chewing gum body obtained in step e) to obtain heterogeneously structured chewing gum cores, g) sugar-coating the heterogeneously structured chewing gum cores obtained in step f) with the transparent sugar-coating medium and h) obtaining transparently sugar-coated chewing gum, having a heterogeneously structured chewing gum core. a) providing chewing gum core components, in particular at least one chewing gum base mass and at least one first carbohydrate, coloured carbohydrate particles with a particle diameter of 0.2 to 2 mm, and a transparent sugar-coating medium containing at least one second carbohydrate, b) mixing and kneading the chewing gum core components to obtain a chewing gum core mass, c) extruding the chewing gum core mass to obtain an extruded shaped chewing gum body, d) scattering the coloured carbohydrate particles on a surface of the extruded shaped chewing gum body, e) rolling the shaped chewing gum body scattered with coloured carbohydrate particles, f) cutting the rolled shaped chewing gum body obtained in step e) to obtain heterogeneously structured chewing gum cores, g) sugar-coating the heterogeneously structured chewing gum cores obtained in step f) with the transparent sugar-coating medium and h) obtaining transparently sugar-coated chewing gum, having a heterogeneously structured chewing gum core.
A superabsorbent polymer comprising a base resin powder comprising a crosslinked polymer of water soluble ethylenically unsaturated monomers having acid groups of which at least a part are neutralized, wherein a plurality of pores with a diameter of 1 μm or more are formed in the base resin powder, the crosslinked polymer comprises layered silicate-based particles dispersed in a crosslinking structure, and a time for removing vortex generated when stirring at 600 rpm in 50 ml of a 0.9 wt% NaCl solution is 60 seconds or less, wherein the layered silicate-based particles are hectorite, wherein the plurality of pores with a diameter of 1 μm or more formed in the base resin powder comprise micropores with diameters of 10 μm to 100 μm, wherein the diameter of the pores and micropores is measured by scanning electron microscopy SEM, wherein the time for removing vortex is calculated by adding 2.00 g of the superabsorbent polymer while stirring in 50 ml of a 0.9 wt% NaCl solution at 600 rpm using a stirrer, and measuring a time until the vortex of liquid generated by the stirring disappears and a smooth surface is formed, wherein the layered silicate-based particles comprise a unit crystal comprising a metal oxide layer, and a silica layer comprising silica formed on at least one side of the metal oxide layer.
Particle trap for separating particles from a flow, wherein the particle trap comprises at least one inlet module , at least two or more collector modules , and at least one outlet module , wherein: • the at least two or more collector modules have at least four outer walls , , , forming a substantially square-shaped channel containing at least one baffle , wherein the collector modules have a lower opening having a lower mounting flange , and an upper opening having an upper mounting flange , the lower mounting flange and the upper mounting flange being provided with holes, such that the upper mounting flange from a first collector module can be arranged to a lower mounting flange 23' of a second collector module 1′; • the baffle contained in the at least two or more collector modules forms a surface (A), in which the surface (A) wholly or partially slopes towards a point , in which the point is arranged close to or against one or more outer walls , , , , to which said outer walls , , , the baffle is affixed and whereby the arrangement of the baffle in the collector modules provides an opening in the square channel formed by the outer walls , , , ; • the inlet module is arranged with a flange arranged to fit the lower mounting flange of the first collector module of the particle trap and the outlet module is arranged with a flange arranged to fit the upper mounting flange of the last collector module of the particle trap ; said particle trap being characterised in that the two or more collector modules are placed such that the flow path through the particle trap is extended by alternately arranging a baffle against the first outer wall and the second outer wall , and the next baffle against the third outer wall and the fourth outer wall . • the at least two or more collector modules have at least four outer walls , , , forming a substantially square-shaped channel containing at least one baffle , wherein the collector modules have a lower opening having a lower mounting flange , and an upper opening having an upper mounting flange , the lower mounting flange and the upper mounting flange being provided with holes, such that the upper mounting flange from a first collector module can be arranged to a lower mounting flange 23' of a second collector module 1′; • the baffle contained in the at least two or more collector modules forms a surface (A), in which the surface (A) wholly or partially slopes towards a point , in which the point is arranged close to or against one or more outer walls , , , , to which said outer walls , , , the baffle is affixed and whereby the arrangement of the baffle in the collector modules provides an opening in the square channel formed by the outer walls , , , ; • the inlet module is arranged with a flange arranged to fit the lower mounting flange of the first collector module of the particle trap and the outlet module is arranged with a flange arranged to fit the upper mounting flange of the last collector module of the particle trap ;
A process for preparing a compound of formula (I) or a solvate thereof wherein R 1 , R 2 and R 3 represent independently a hydroxyl protecting group, wherein R 3 is orthogonal to R 1 and R 2 , which comprises: (a) oxidative cleavage of the double bond of a compound of formula (II) or a solvate thereof wherein R 4 is a diol protecting group which is orthogonal to R 1 ; to provide a compound of formula (III) or a solvate thereof (b) vinylation of the aldehyde of a compound of formula (III), or a solvate thereof, to provide a compound of formula (IV) or a solvate thereof (c) protection of the hydroxyl group of a compound of formula (IV), or a solvate thereof, to provide a compound of formula (V) or a solvate thereof (d) cleavage of the diol protecting group of a compound of formula (V), or a solvate thereof, to provide a compound of formula (VI) or a solvate thereof (e) conversion of the primary hydroxyl group into the homolog aldehyde and protection of the secondary hydroxyl of a compound of formula (VI), or a solvate thereof, to provide a compound of formula (VII) or a solvate thereof and (f) Corey-Fuchs reaction of a compound of formula (VII), or a solvate thereof, to provide a compound of formula (I) or a solvate thereof. (a) oxidative cleavage of the double bond of a compound of formula (II) or a solvate thereof wherein R 4 is a diol protecting group which is orthogonal to R 1 ; to provide a compound of formula (III) or a solvate thereof (b) vinylation of the aldehyde of a compound of formula (III), or a solvate thereof, to provide a compound of formula (IV) or a solvate thereof (c) protection of the hydroxyl group of a compound of formula (IV), or a solvate thereof, to provide a compound of formula (V) or a solvate thereof (d) cleavage of the diol protecting group of a compound of formula (V), or a solvate thereof, to provide a compound of formula (VI) or a solvate thereof (e) conversion of the primary hydroxyl group into the homolog aldehyde and protection of the secondary hydroxyl of a compound of formula (VI), or a solvate thereof, to provide a compound of formula (VII) or a solvate thereof and (f) Corey-Fuchs reaction of a compound of formula (VII), or a solvate thereof, to provide a compound of formula (I) or a solvate thereof.
A gripper for holding a hollow object thereon, said gripper comprising a body assembly configured to be at least partially received inside the object and comprising a hollow part extending along a length thereof, a friction imparting element comprising a deformable element attached to the body assembly and configured to change between an engaged state in which contact with inner surface of the object placed over the gripper is established therewith, and a released state in which there is no contact with the inner surface of the object , and an attachment mechanism configured to cause the friction imparting element to engage the inner surface of the object when said object is placed over the gripper, said attachment mechanism having a ground normal state in which the friction imparting element is set into the engaged state , characterized in that said attachment mechanism is configured to compress the deformable element in the ground normal state such that some portion of said deformable element is caused to protrude from the body assembly and contact an inner wall of the object placed thereover, and to stretch the deformable element responsive to the application of fluid pressure to radially retract said some portion of the deformable element and release the object; and said gripper comprising fluid passages passing along a length of said gripper for preventing resistive pressure buildups inside said hollow object while it is being placed over the gripper , or removed therefrom. said attachment mechanism is configured to compress the deformable element in the ground normal state such that some portion of said deformable element is caused to protrude from the body assembly and contact an inner wall of the object placed thereover, and to stretch the deformable element responsive to the application of fluid pressure to radially retract said some portion of the deformable element and release the object; and said gripper comprising fluid passages passing along a length of said gripper for preventing resistive pressure buildups inside said hollow object while it is being placed over the gripper , or removed therefrom.
A method performed by a source device for remote display of content by a sink device in a wireless network, comprising: identifying , at a source device capable of displaying content, one or more rendering instructions for content to be displayed remotely on a sink device; transmitting encoded content and the one or more rendering instructions to the sink device via a wireless peer-to-peer connection for execution by the sink device, wherein the one or more rendering instructions are adapted to allow rendering the encoded content for a display of at least part of the content; receiving data from the sink device; and transmitting, to the sink device, updated and / or new rendering instructions determined by the source device using the received data, wherein the updated and / or new rendering instructions are for rendering the encoded content. identifying , at a source device capable of displaying content, one or more rendering instructions for content to be displayed remotely on a sink device; transmitting encoded content and the one or more rendering instructions to the sink device via a wireless peer-to-peer connection for execution by the sink device, wherein the one or more rendering instructions are adapted to allow rendering the encoded content for a display of at least part of the content; receiving data from the sink device; and transmitting, to the sink device, updated and / or new rendering instructions determined by the source device using the received data, wherein the updated and / or new rendering instructions are for rendering the encoded content.
A non-evaporable getter coated component comprising a non-evaporable getter material layer with a total storage capacity of carbon atoms, nitrogen atoms and oxygen atoms of 9 mol% or less and/or a noble metal layer with a total storage capacity of carbon atoms, nitrogen atoms and oxygen atoms of 12 mol% or less, wherein a performance of pumping residual gas is demonstrated by heating at an activation temperature of 185 °C or less under low pressure.
A milling blank for producing an abutment attachment , which can be fastened on a dental implant - wherein the milling blank has a fastening section with a screw channel for a fastening screw for fastening the milled abutment attachment on a dental implant, - wherein the screw channel comprises a conical section for insertion of a fastening screw with conical collar, - wherein the conical section is arranged in the fastening section , - wherein the milling blank has a milling section with an angled supply channel compared to the screw channel for supplying the fastening screw to the screw channel , - wherein the supply channel merges into the screw channel in an edgeless manner, - wherein the supply channel has an opening on the upper side of the cylindrical milling section , which is located in the edge region of the circular surface, which is formed by the upper side of the cylindrical milling section , and - wherein the fastening section widens towards the milling section and the fastening section merges continuously by means of a transition section and without corners into the milling section and in this case, the transition section has a concave inwardly curved shape. - wherein the milling blank has a fastening section with a screw channel for a fastening screw for fastening the milled abutment attachment on a dental implant, - wherein the screw channel comprises a conical section for insertion of a fastening screw with conical collar, - wherein the conical section is arranged in the fastening section , - wherein the milling blank has a milling section with an angled supply channel compared to the screw channel for supplying the fastening screw to the screw channel , - wherein the supply channel merges into the screw channel in an edgeless manner, - wherein the supply channel has an opening on the upper side of the cylindrical milling section , which is located in the edge region of the circular surface, which is formed by the upper side of the cylindrical milling section , and - wherein the fastening section widens towards the milling section and the fastening section merges continuously by means of a transition section and without corners into the milling section and in this case, the transition section has a concave inwardly curved shape.
A non-bioabsorbable imaging marker (14; 14') for the subcutaneous marking of tissue, the non-bioabsorbable imaging marker comprising: a first non-bioabsorbable element (60; 60') imageable using a first primary imaging mode and a second non-bioabsorbable element (62; 62') imageable using a second primary imaging mode, wherein the second primary imaging mode is different than the first primary imaging mode, the first element (60; 60')is composed of porous polyvinyl alcohol, and the second element (62; 62') comprises a loop that surrounds the first element(60; 60'). a first non-bioabsorbable element (60; 60') imageable using a first primary imaging mode and a second non-bioabsorbable element (62; 62') imageable using a second primary imaging mode, wherein the second primary imaging mode is different than the first primary imaging mode, the first element (60; 60')is composed of porous polyvinyl alcohol, and the second element (62; 62') comprises a loop that surrounds the first element(60; 60').
Microcapsules comprising a polymeric coating, the polymeric coating being at least partly crosslinked with a polymeric matrix comprising a polysaccharide, wherein in the matrix a lipid and an active agent or a prodrug or salt thereof are embedded, the lipid having a melting point of at least 30°C.
A blade assembly for a grass cutting mobile robot, comprising: a housing to hold blades (308; 308a, 308b, 308c) and configured for coupling to an actuator of the grass cutting mobile robot so that the housing is rotatable about a drive axis , the housing comprising a slot (322; 322a; 332b; 322c) in which to mount one of the blades, wherein the housing is configured to receive a shaft that connects the housing to the actuator, the shaft defining a groove therein; characterized by : a coupling latch (329; 329a; 329b; 329c) mounted on an axis of one of the blades and configured to engage with the shaft, the coupling latch being rotatable within the housing to move an engagement end towards, or away from the groove, wherein the engagement end is positionable within the groove to lock the housing to the actuator; and a spring (331; 331a; 331b; 331c) that connects at an upper end to one of the blades and at a lower end to the coupling latch. a housing to hold blades (308; 308a, 308b, 308c) and configured for coupling to an actuator of the grass cutting mobile robot so that the housing is rotatable about a drive axis , the housing comprising a slot (322; 322a; 332b; 322c) in which to mount one of the blades, wherein the housing is configured to receive a shaft that connects the housing to the actuator, the shaft defining a groove therein; characterized by : a coupling latch (329; 329a; 329b; 329c) mounted on an axis of one of the blades and configured to engage with the shaft, the coupling latch being rotatable within the housing to move an engagement end towards, or away from the groove, wherein the engagement end is positionable within the groove to lock the housing to the actuator; and a spring (331; 331a; 331b; 331c) that connects at an upper end to one of the blades and at a lower end to the coupling latch. a coupling latch (329; 329a; 329b; 329c) mounted on an axis of one of the blades and configured to engage with the shaft, the coupling latch being rotatable within the housing to move an engagement end towards, or away from the groove, wherein the engagement end is positionable within the groove to lock the housing to the actuator; and a spring (331; 331a; 331b; 331c) that connects at an upper end to one of the blades and at a lower end to the coupling latch.
A gas turbine engine comprising: a combustor section arranged between a compressor section and a turbine section , wherein the compressor section includes at least a low pressure compressor and a high pressure compressor , the high pressure compressor is arranged immediately upstream of the combustor section ; a fan section having an array of twenty-six or fewer fan blades , wherein the fan section has a low fan pressure ratio of less than 1.55, wherein the low pressure compressor is immediately downstream from the fan section and the low pressure compressor has blades which are counter-rotating relative to the fan blades ; a geared architecture coupling the fan section to the turbine section or the compressor section ; and an airfoil arranged in the low pressure compressor and comprising pressure and suction sides extending in a radial direction from a 0% span position to a 100% span position, the 0% span position corresponding to a radially innermost span position, characterized in that the airfoil has a stagger angle (α) formed between a chord and a tangential plane normal to the longitudinal axis of the engine and a relationship between the stagger angle (α) and span position that defines a curve with a stagger angle (α) that is greater than 35° from 0% span to at least 50% span. a combustor section arranged between a compressor section and a turbine section , wherein the compressor section includes at least a low pressure compressor and a high pressure compressor , the high pressure compressor is arranged immediately upstream of the combustor section ; a fan section having an array of twenty-six or fewer fan blades , wherein the fan section has a low fan pressure ratio of less than 1.55, wherein the low pressure compressor is immediately downstream from the fan section and the low pressure compressor has blades which are counter-rotating relative to the fan blades ; a geared architecture coupling the fan section to the turbine section or the compressor section ; and an airfoil arranged in the low pressure compressor and comprising pressure and suction sides extending in a radial direction from a 0% span position to a 100% span position, the 0% span position corresponding to a radially innermost span position, characterized in that the airfoil has a stagger angle (α) formed between a chord and a tangential plane normal to the longitudinal axis of the engine and a relationship between the stagger angle (α) and span position that defines a curve with a stagger angle (α) that is greater than 35° from 0% span to at least 50% span.
A sensor assembly comprising: a flexible substrate ; a pattern of conductive wires embroidered in the flexible substrate to form an array of touch sensitive sensors ; and an interface disposed on the flexible substrate and in communication with the pattern of conductive wires; characterized in that the sensor assembly further comprises a sensor controller configured to detect positional relationships between nodes formed by the pattern of conductive wires, and further configured to compute strain based on a deformation of the nodes and an associated change in the positional relationships between the nodes, and to create a strain map for an object in which the sensor assembly is embedded. a flexible substrate ; a pattern of conductive wires embroidered in the flexible substrate to form an array of touch sensitive sensors ; and an interface disposed on the flexible substrate and in communication with the pattern of conductive wires; characterized in that the sensor assembly further comprises a sensor controller configured to detect positional relationships between nodes formed by the pattern of conductive wires, and further configured to compute strain based on a deformation of the nodes and an associated change in the positional relationships between the nodes, and to create a strain map for an object in which the sensor assembly is embedded.